Debates on GM Crops in Europe: Implications for International Food and Agricultural Policies

Total Page:16

File Type:pdf, Size:1020Kb

Debates on GM Crops in Europe: Implications for International Food and Agricultural Policies Debates on GM crops in Europe: Implications for international food and agricultural policies Ksenia Gerasimova Centre of Development Studies, University of Cambridge Abstract Europe is particularly known for its opposition to the use of genetic engineering in agriculture. While the main object of the debate, the GM plants, is a product of scientific research, the debate has gone beyond the discussion of purely scientific topics and turned into 'an ideological debate inseparable from political and economic conflicts, where rational thinking is mixed with irrationality and hysteria' (Cook et al, 2004). While this appears as a regional issue, the European resistance brings implications to international policies on food and agriculture. For example, African leaders are hesitant to allow GM crops in fear of losing access to the European markets. In the early 2000s this fear led the Zambian government to reject GM grain as food aid and deprive the affected population by severe hunger from additional food supply (Brand, 2010). This paper aims to examine the causes of such strong resistance in the region by comparing socio-economic implications resulting from accepting/rejecting GM crops for Europe itself and two other regions, such as Northern America and Africa, and identifying main institutional actors involved. In the case of GM crops' debates, such institutional actors include scientists, European bureaucrats, and NGOs' activists. Such mapping can help to understand more about motivations and lobbying strategy of each of the group involved and of Europe as a region. The hypothesis of this paper that the European NGOs working in environmental issues and social justice form a strong lobby and enjoy close ties with the bureaucrats and thus influence each other will be tested with the social network analysis. Thus, the paper will contribute to understanding of inter- and intra-institutional interactions for food security and agricultural policies. Key words: Africa, Europe, GM Crops, NGOs. Introduction This paper contributes to the ICPP 2015 Panel: “The new policy and politics of food and agriculture”, specifically to its session ‘Food and agriculture policy: A global shift to new ideas and paradigms?’ First, let me remind the definition of agriculture, which is ‘the science or practice of cultivating the soil and rearing animals’ (Barber, 2004, p.26). The word ‘science’ is particularly important to the discussion of agriculture and GM plants. In the 1980s there was ‘a decline in the relative importance of agriculture to the overall economy, as the industrial and service sectors grow even more rapidly, partly through stimulus from a modernising agriculture’, and as a result academics and donors shown less interest in the sector (Timmer, 2006, p.5). However, this trend in perception of agriculture in public policy is getting reversed by the rise of agro-biotechnology. This rise presents both opportunities and challenges for farmers, agro-companies, retailers, consumers and policy-makers in both developing and developed countries. Timmer has laid out this process in what he called three revolutions. These include a genetic revolution, a supermarket revolution and a profitable agriculture revolution (Timmer, 2006). All of them seem to part of wider contemporary processes of globalization. Another global trend is a growing importance of food security. It is expected that by 2050 the world’s population will reach 9.1 billion, and the main increase will occur in developing countries. In order to feed this population which will be rapidly growing, more urban and richer, food production will have to increase by 70 percent (FAO, 2009). Although some counter-argue that there is no need in increasing global yield and what is needed is the redistribution of food (Trueba & MacMillan, 2013). Both arguments, however, indicate the need to transform the current system of agricultural production and food consumption towards more sustainable practices. Food is the most basic human need which needs to be satisfied daily, any delay in its supply can cause political implications, such as food riots. That’s why food policy is always going to be political. It appears that since the 1980s the cases of hunger have become more frequent and more acute. In 2011 around 563 million hungry people live in Asia, and 239 million – in Africa. Another form of hunger is malnutrition. For example, vitamin A deficiency (VAD), one of the largest nutritional burdens in the developing world, particularly affects children and women. It increases child mortality and blindness due to susceptibility to infection (Rein & Herbers, 2006). All that requires both change in food production and distribution as well as necessary policy interventions to all this happen at both national and international level. Recognition of both the changing nature of the contemporary food systems and the role of policy-making brings back political science to the discussion of agriculture and food production (Grant, 2012). This paper looks at one feature of the described processes – genetically modified agriculture and discusses how it is perceived in the European Union’s public domain and what implications results from such perceptions in relation to other regions, particularly Africa. The paper illustrates that in the debates on GM crops, the focus is not on the technology itself, but on its policy-making, and the main presented arguments are the importance of institutional context to the adoption and application of transgenic agriculture and a link between regional choices about the GM technology and international cooperation. The chosen structure of the paper aims to provide necessary background information, illustrate this link and prove the importance of regional contexts. First, it provides a brief history of perceptions of genetically modified crops, trying to understand the institutional context. Then it will review ongoing debates over the use of GMOs in agriculture, particularly those relevant to developing countries, who are arguably might be the main recipients of the technology. Although full application of the methodology of network analysis is difficult to apply due to the nature of available data on NGOs1, the paper will still refer to this method by analysing the links between the NGOs involved in the debate. Social Network Analysis is a research methodology developed for analyzing social networks, originated from sociological and mathematical studies since the mid-1930s, but has wide spread across different disciplines from the early 1990s (Freeman, 2004). According to Davies (2009), SNA is 'a representational technology', meaning that it is not tied to a specific theory of how society or individuals operate. So it can be adapted to a variety of research projects. While the work described in this paper is still in progress, 1 There is no comprehensive database for NGOs participating in the GM debate. Few authors (Ansell et al, 2013; Schurman & Munro, 2010) working on the subject have to create their own database, and so does this paper. See appendix. several case studies of NGOs’ engagement will be used to illustrate the interconnectedness of NGOs operating in different regions, in this instance Europe and Africa. 1. General characteristics of debates over the use of GM crops Genetic modification is a technique where individual genes can be copied and transferred to another living organism to thus incorporate or delete specific characteristics into or from the organism. The development of genetically modified crops consists of several stages: laboratory, greenhouse, field trials, risk assessment tests, farm release and post-marketing surveillance. All these procedures are run by biologists under established regulations, yet the discussion and policy-making for GM crops in agriculture go beyond laboratories and regulatory offices into a wider general public domain. Proponents of GM technology (Moore, 2014, Ammann, 2014) refer to a wide number of studies which show safety of GM food, but there are still very serious concerns from the opponents’ side. The debates over the use of GM varies in scale and regional case studies, but they also seem to have a number of common trends. First, they are the best example of ‘advocacy science’ (Grundmann, 2011), when the science and subjects what were exclusively in the domain of professional scientists become open to a wider audience. Gaudilliere (2006) separates two levels of debates: the scientific debate and the debate which include other scientists outside molecular biology, and other interested parties from 'lay people' (i.e. not scientists). The research by Cook et al showed how scientists tend to distance themselves from public and opponents of GM, the group which would include media and campaigning NGOs (Cook et Al, 2004). In general, it appears that the major debates are taking place between the activists, often among themselves, and scientists. The media then acts as their voice to influence public opinion and use direct and indirect ways to engage with policy decision-makers. Farmers and consumers are often referred as their constituencies who would benefit from results of such lobbying. However, in many cases the same people who represent the scientific community become activists and vice versa. For example, Dr Fagan, a molecular biologist, in 1994 took a stand against genetic engineering, renounced his grants and decided to dedicate his time to anti-GM activism (Fagan, 2007). In the other direction, Mark Lynas, a former Greenpeace activist, left green activism and has joined Cornell University to work alongside the scientists instead (Lynas, 2014). There is also a geographic context: Europe is known for opposing GM crops being grown in the region. That correlates with the fact that Europe is most possibly home to the highest number of anti-GM NGOs and campaigns (Ansel et al, 2013; also see appendix). Another common trend is the argumentation in debates. In some cases, the strategy to win a debate appears to be not through counter-arguing the argument of the other side, but by ‘ad hominem’ accusations of biased interests and undermining the authority of opponents.
Recommended publications
  • Genetically Modified Cotton
    BACKGROUND 2013 GENETICALLY MODIFIED COTTON Genetically engineered (also called genetically modified or GM) cotton is currently grown on 25 million hectares around the world, mostly in India, China, Pakistan and the US.1 Other countries growing much smaller amounts of GM cotton are South Africa, Burkina Faso, Sudan, Brazil, Argentina, Paraguay, Columbia, Mexico, Costa Rica, Burma, Australia, and Egypt. GM cotton is engineered with one of two traits. One makes it resistant to glyphosate-based herbicides such as Monsanto’s Roundup, SUMMARY while the other stimulates the plant to produce a toxin that kills the bollworm, one of the crop’s primary pests. This pest-resistant cotton GM COTTON FAILED is engineered with a gene from the bacteria Bacillus thurengiensis FARMERS IN INDIA or “Bt”, and is the more commonly grown of the two types. » Yields declined. BT COTTON IN INDIA » Secondary pests emerged, Cotton is an important cash crop in India. It is grown on 12 million forcing increased pesticide use. hectares, making India the second largest producer of cotton in the » The price of cotton seed rose. world, behind China. Insect-resistant Bt cotton is the only GM crop currently grown in India.2 It was introduced in India by Monsanto in » Farmers lost the option to buy 2002, under the trade name Bollgard, in a joint venture with the non-GM cotton seeds. Indian seed company Mahyco. Monsanto promised Indian farmers that Bt cotton would: 1. Reduce the amount of pesticides farmers need to buy to control pests, 2. Increase harvests and farm income by reducing crop losses due to pest attacks.3 In the first few years after Bt cotton was commercialized in India, some farmers saw reductions in pesticide use and crop losses, but this pattern quickly and dramatically changed.
    [Show full text]
  • Bt Cotton in Texas
    B-6107 02-01 Bt Cotton Technology in Texas: A Practical View Glen C. Moore, Thomas W. Fuchs, Mark A. Muegge, Allen E. Knutson* Since their introduction in 1996, transgenic cot- tons expressing the Bollgard® gene technology have been evaluated by producers in large scale commer- cial plantings across the U.S. Cotton Belt. Transgenic cottons are designed to be resistant to the target pests of bollworm Helicoverpa zea (Boddie), pink bollworm Pectinophora gossypiella (Sanders), and tobacco budworm Heliothis virescens (F.). These cottons contain Bacillus thuringiensis (Bt), a gene toxic to the target pests. The perfor- mance of these cottons has been highly efficacious against the tobacco budworm and the pink bollworm. They also preform well against bollworm; however, in certain situations producers may need to make supplemental insecticide treatments for this insect. Conditions that have contributed to the need for sup- plemental control are heavy bollworm egg laying during peak bloom, boll injury and the presence of larvae larger than 1/4 inch, high production inputs that favor rapid or rank plant growth, and fields pre- viously treated with insecticides. Earliest reports of bollworm damage on transgenic cotton varieties NuCOTN 33B and NuCOTN 35B surfaced in the Brazos Bottomlands and parts of the upper Coastal Bend areas of Texas in 1996. NuCOTN 33B and NuCOTN 35B have, however, provided effective bollworm control throughout much of Texas and reduced insecticide treatments for bollworm, tobacco budworm and pink bollworm compared to non-Bollgard® cotton. Yields from Bollgard® cotton are generally equal to or slightly higher than those for standard non- Bollgard® cultivars grown under the same production scheme.
    [Show full text]
  • Barriers to Adoption of GM Crops
    Iowa State University Capstones, Theses and Creative Components Dissertations Fall 2021 Barriers to Adoption of GM Crops Madeline Esquivel Follow this and additional works at: https://lib.dr.iastate.edu/creativecomponents Part of the Agricultural Education Commons Recommended Citation Esquivel, Madeline, "Barriers to Adoption of GM Crops" (2021). Creative Components. 731. https://lib.dr.iastate.edu/creativecomponents/731 This Creative Component is brought to you for free and open access by the Iowa State University Capstones, Theses and Dissertations at Iowa State University Digital Repository. It has been accepted for inclusion in Creative Components by an authorized administrator of Iowa State University Digital Repository. For more information, please contact [email protected]. Barriers to Adoption of GM Crops By Madeline M. Esquivel A Creative Component submitted to the Graduate Faculty in partial fulfillment of the requirements for the degree of MASTER OF SCIENCE Major: Plant Breeding Program of Study Committee: Walter Suza, Major Professor Thomas Lübberstedt Iowa State University Ames, Iowa 2021 1 Contents 1. Introduction ................................................................................................................................. 3 2. What is a Genetically Modified Organism?................................................................................ 9 2.1 The Development of Modern Varieties and Genetically Modified Crops .......................... 10 2.2 GM vs Traditional Breeding: How Are GM Crops Produced?
    [Show full text]
  • Non-Recessive Bt Toxin Resistance Conferred by an Intracellular Cadherin Mutation in Field-Selected Populations of Cotton Bollworm
    Non-Recessive Bt Toxin Resistance Conferred by an Intracellular Cadherin Mutation in Field-Selected Populations of Cotton Bollworm Haonan Zhang1, Shuwen Wu1, Yihua Yang1, Bruce E. Tabashnik2, Yidong Wu1* 1 Key Laboratory of Integrated Management of Crop Diseases and Pests (Ministry of Education), College of Plant Protection, Nanjing Agricultural University, Nanjing, China, 2 Department of Entomology, University of Arizona, Tucson, Arizona, United States of America Abstract Transgenic crops producing Bacillus thuringiensis (Bt) toxins have been planted widely to control insect pests, yet evolution of resistance by the pests can reduce the benefits of this approach. Recessive mutations in the extracellular domain of toxin- binding cadherin proteins that confer resistance to Bt toxin Cry1Ac by disrupting toxin binding have been reported previously in three major lepidopteran pests, including the cotton bollworm, Helicoverpa armigera. Here we report a novel allele from cotton bollworm with a deletion in the intracellular domain of cadherin that is genetically linked with non- recessive resistance to Cry1Ac. We discovered this allele in each of three field-selected populations we screened from northern China where Bt cotton producing Cry1Ac has been grown intensively. We expressed four types of cadherin alleles in heterologous cell cultures: susceptible, resistant with the intracellular domain mutation, and two complementary chimeric alleles with and without the mutation. Cells transfected with each of the four cadherin alleles bound Cry1Ac and were killed by Cry1Ac. However, relative to cells transfected with either the susceptible allele or the chimeric allele lacking the intracellular domain mutation, cells transfected with the resistant allele or the chimeric allele containing the intracellular domain mutation were less susceptible to Cry1Ac.
    [Show full text]
  • Monsanto's BT Cotton Patent, Indian Courts and Public Policy
    6. MONSANTO’S BT COTTON PATENT, INDIAN COURTS AND eligible subject matter promotes public policy and farmers’ PUBLIC POLICY interests. Keywords: Bt. cotton, patent eligible subject matter, nucleic Ghayur Alam∗ acid sequence, plant, public policy, revocation of patent, seed, ABSTRACT TRIPS. This Paper primarily deals with an unanswered substantial 1. INTRODUCTION question of patent law that has arisen in India. The question is whether an invented Nucleic Acid Sequence after being A substantial question of patent law (hereinafter, ‘question’) inserted into a seed or plant becomes part of the seed or the of great significance has arisen in India and is awaiting an plant. If answer is in the affirmative, said invention is not answer from Indian courts. The question is whether an patentable under Section 3(j) of the (Indian) Patents Act 1970, invented Nucleic Acid Sequence (NAS) after being inserted which excludes from patentability, inter alia, plants, seeds, or into a seed or plant becomes part of the seed or the plant? any part thereof. If answer is in the negative, said invention is Specifically, the question is whether the patent granted1 by patentable. Answer will determine the fate of patenting of the Indian Patent Office to Monsanto Technology LLC such inventions in the field of agro-biotechnology. Problem is (Monsanto) on transgenic variety of cottonseeds, containing that the question has moved forth and back like pendulum invented Bt. trait is valid or not? If the answer is in affirmative, from one court to another but in vain. This paper seeks to claimed invention is not patentable under the (Indian) address this question in light of the decisions of Indian courts.
    [Show full text]
  • A Present Day Account on the Safety of Food Derived from GM Crops
    Arpad Pusztai’s Feeding experiments of GM potatoes with lectins to rats: Anatomy of a controversy 1998 - 2009 Klaus Ammann AF-2 20121127 open source [email protected] 2 Contents 1. Issue ................................................................................................................................................................................... 3 2. Summary .......................................................................................................................................................................... 3 3. Introduction .................................................................................................................................................................... 5 4. How it all started ........................................................................................................................................................... 7 5. The Issue of the Rat Experiments of A. Pusztai as an example ................................................................. 11 6. Background related to the publication process of the study of A. Pusztai in Lancet ........................ 12 7. Analysis of the Results of the Study of Ewen and Pusztai 1999 ................................................................ 13 7.1. Rebuttal in the same Lancet Volume of H. Kuiper .................................................................................... 14 7.2.The audit report of the Rowett Institute ..................................................................................................
    [Show full text]
  • Resistance Management Plan (Rmp) Resistance Management 1
    BOLLGARD® 3 RESISTANCE MANAGEMENT PLAN (RMP) RESISTANCE MANAGEMENT 1. PLANTING RESTRICTIONS Victoria, New South Wales and Southern PLAN Queensland Developed by Monsanto Australia Pty Ltd. All Bollgard 3 crops and refuges must be planted into moisture or watered-up between August 1 and before December 31 each year, The Resistance Management Plan is unless otherwise specified in this Resistance Management Plan. based on three basic principles: (1) Central Queensland minimising the exposure of Helicoverpa All Bollgard 3 crops and refuges must be planted into moisture or watered-up between August 1 and before October 31 each spp. to the Bacillus thuringiensis year, unless otherwise specified in this Resistance Management (Bt) proteins Cry1Ac, Cry2Ab and Plan. Bollgard 3 can only be planted from August 1 to October 31 each year. Seed cannot be planted wet or dry prior to August 1. Vip3A, (2) providing a population of Any Bollgard 3 crops planted into moisture or watered-up after susceptible individuals that can mate October 31 and up to December 31 must plant additional refuge as specified in Table 3 and 4. Bollgard 3 cannot be planted dry with any resistant individuals, hence prior to December 31 if not watered up. diluting any potential resistance, and 2. REFUGES (3) removing resistant individuals at the end of the cotton season. These principles are Growers planting Bollgard 3 cotton will be required to grow a refuge crop that is capable of producing large numbers of Helicoverpa supported through the implementation of spp. moths which have not been exposed to selection with the five elements that are the key components Bt proteins Cry1Ac, Cry2Ab and Vip3A.
    [Show full text]
  • Diversity of Insects Under the Effect of Bt Maize and Insecticides Diversidade De Insetos Sob a Influência Do Milho Bt E Inseticidas
    AGRICULTURAL ENTOMOLOGY / SCIENTIFIC ARTICLE DOI: 10.1590/1808-1657000062015 Diversity of insects under the effect of Bt maize and insecticides Diversidade de insetos sob a influência do milho Bt e inseticidas Marina Regina Frizzas1*, Charles Martins de Oliveira2, Celso Omoto3 ABSTRACT: The genetically modified maize to control RESUMO: O milho geneticamente modificado visando ao controle some caterpillars has been widely used in Brazil. The effect de lagartas tem sido amplamente utilizado no Brasil. Em estudo de of Bt maize and insecticides was evaluated on the diversity of campo realizado em Ponta Grossa (Paraná, Brasil), compararam-se, insects (species richness and abundance), based on the insect com base na diversidade (riqueza de espécies e abundância), os efeitos community, functional groups and species. This study was do milho Bt e do controle químico sobre a comunidade de insetos, conducted in genetically modified maize MON810, which grupos funcionais e espécies. A comunidade de insetos foi amostrada expresses the Cry1Ab protein from Bacillus thuringiensis Berliner, no milho geneticamente modificado MON810, que expressa a proteína and conventional maize with and without insecticide sprays Cry1Ab de Bacillus thuringiensis Berliner, e no milho convencional (lufenuron and lambda-cyhalothrin) under field conditions com e sem a aplicação de inseticidas (lufenuron e lambda-cialotrina). in Ponta Grossa (Paraná state, Brazil). Insect samplings were As amostragens foram realizadas por meio da coleta de insetos utili- performed by using pitfall trap, water tray trap and yellow sticky zando-se armadilha de queda, bandeja-d’água e cartão adesivo. Foram card. A total of 253,454 insects were collected, distributed coletados 253.454 insetos, distribuídos em nove ordens, 82 famílias among nine orders, 82 families and 241 species.
    [Show full text]
  • Transposon Insertion Causes Cadherin Mis-Splicing and Confers Resistance
    www.nature.com/scientificreports OPEN Transposon insertion causes cadherin mis-splicing and confers resistance to Bt cotton in pink Received: 7 August 2018 Accepted: 2 May 2019 bollworm from China Published: xx xx xxxx Ling Wang1,2, Jintao Wang1,3, Yuemin Ma4, Peng Wan1, Kaiyu Liu4, Shengbo Cong1, Yutao Xiao5, Dong Xu1, Kongming Wu2, Jefrey A. Fabrick 6, Xianchun Li7 & Bruce E. Tabashnik 7 Transgenic crops producing insecticidal proteins from Bacillus thuringiensis (Bt) are cultivated extensively, but rapid evolution of resistance by pests reduces their efcacy. We report a 3,370- bp insertion in a cadherin gene associated with resistance to Bt toxin Cry1Ac in the pink bollworm (Pectinophora gossypiella), a devastating global cotton pest. We found the allele (r15) harboring this insertion in a feld population from China. The insertion is a miniature inverted repeat transposable element (MITE) that contains two additional transposons and produces two mis-spliced transcript variants (r15A and r15B). A strain homozygous for r15 had 290-fold resistance to Cry1Ac, little or no cross-resistance to Cry2Ab, and completed its life cycle on Bt cotton producing Cry1Ac. Inheritance of resistance was recessive and tightly linked with r15. For transformed insect cells, susceptibility to Cry1Ac was greater for cells producing the wild-type cadherin than for cells producing the r15 mutant proteins. Recombinant cadherin protein occurred on the cell surface in cells transformed with the wild- type or r15A sequences, but not in cells transformed with the r15B sequence. The similar resistance of pink bollworm to Cry1Ac in laboratory- and feld-selected insects from China, India and the U.S.
    [Show full text]
  • Chapter 2: Benefits and Risks of Gene Technology in Agriculture
    2 %HQHILWVDQGULVNVRIJHQHWHFKQRORJ\LQ DJULFXOWXUH Introduction 2.1 Using biotechnology can be seen as extending earlier methods of plant and animal breeding which date back many thousands of years (Table 2.1).1 The technology obtains results more rapidly, is more precise, and gives access to a broader genetic base than traditional breeding techniques. These are the features that recommend its use so powerfully to plant and animal breeders. It provides an important tool when integrated with traditional breeding approaches. 2.2 The precision that gene technology offers is possible because the exact segment of a chromosome that determines a desired trait can be identified. With this capacity, traditional breeding programs can be fast tracked by locating seeds or offspring at an early stage, through gene marker technology, and breeding only from them. The Cattle Council of Australia commented on the dramatic increases in precision of genetic improvement that is possible as a result.2 In addition, genes can be removed from one organism and inserted into another. 2.3 Transgenesis, in which genes are moved from one species or organism to another, allows beneficial genes from any source to be transferred to other species or organisms. The Cooperative Research Centre (CRC) for Tropical Plant Pathology pointed out that, while conventional breeding programs have improved the pest and disease resistance of Australian crops, there 1 C Hudson, 'How industry adopts new technology', Gene Technology and Food, National Science & Industry Forum Report, Australian Academy of Science, April 1999, p. 12; Nugrain, Submission no. 25, p. 6. 2 Cattle Council of Australia, Submission no.
    [Show full text]
  • Impact Using Gmos As Feed and Food
    © 2017, Elsevier. Licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International http://creativecommons.org/licenses/by-nc-nd/4.0/ Accepted Manuscript Impact on environment, ecosystem, diversity and health from culturing and using GMOs as feed and food Aristidis M. Tsatsakis, Muhammad Amjad Nawaz, Victor A. Tutelyan, Kirill S. Golokhvast, Olga-Ioanna Kalantzi, Duck Hwa Chung, Sung Jo Kang, Michael D. Coleman, Nadia Tyshko, Seung Hwan Yang, Gyuhwa Chung PII: S0278-6915(17)30341-1 DOI: 10.1016/j.fct.2017.06.033 Reference: FCT 9140 To appear in: Food and Chemical Toxicology Received Date: 5 June 2017 Revised Date: 17 June 2017 Accepted Date: 19 June 2017 Please cite this article as: Tsatsakis, A.M., Nawaz, M.A., Tutelyan, V.A., Golokhvast, K.S., Kalantzi, O.- I., Chung, D.H., Kang, S.J., Coleman, M.D., Tyshko, N., Yang, S.H., Chung, G., Impact on environment, ecosystem, diversity and health from culturing and using GMOs as feed and food, Food and Chemical Toxicology (2017), doi: 10.1016/j.fct.2017.06.033. This is a PDF file of an unedited manuscript that has been accepted for publication. As a service to our customers we are providing this early version of the manuscript. The manuscript will undergo copyediting, typesetting, and review of the resulting proof before it is published in its final form. Please note that during the production process errors may be discovered which could affect the content, and all legal disclaimers that apply to the journal pertain. ACCEPTED MANUSCRIPT Impact on Environment, Ecosystem, Diversity and Health from Culturing and Using GMOs as Feed and Food Aristidis M.
    [Show full text]
  • Smartstax®) B.T
    BIOPESTICIDES REGISTRATION ACTION DOCUMENT MON 89034 x TC1507 x MON 88017 x DAS-59122-7 (SmartStax®) B.t. Corn Seed Blend U.S. Environmental Protection Agency (EPA) Office of Pesticide Programs Biopesticides and Pollution Prevention Division (BPPD) November 29, 2011 Update MON 89034 x TC1507 x MON 88017 x DAS-59122-7 (SmartStax®) B.t. Corn Seed Blend Page 2 of 42 Biopesticides Registration Action Document TABLE OF CONTENTS I. BACKGROUND ……………………………….………………………………… 3 II. SCIENCE ASSESSMENT ………………………………………………………. 4 III. REGULATORY RATIONALE…………………………………….………….. 25 IV. TERMS AND CONDITIONS……………………………………………..……. 27 This update includes a new expiration date and additional terms and conditions. MON 89034 x TC1507 x MON 88017 x DAS-59122-7 (SmartStax®) B.t. Corn Seed Blend Page 3 of 42 Biopesticides Registration Action Document I. BACKGROUND Active Ingredients: Bacillus thuringiensis Cry 1A.l05 protein and the genetic material necessary (vector PV-ZMIR245) for its production in corn event MON 89034 Bacillus thuringiensis Cry2Ab2 protein and the genetic material necessary (vector PV-ZMIR245) for its production in corn event MON 89034 Bacillus thuringiensis Cry1F protein and the genetic material necessary (vector PHP8999) for its production in corn event TCI507 Bacillus thuringiensis Cry3Bbl protein and the genetic material necessary (vector PV-ZMIR39) for its production in com event MON 88017 Bacillus thuringiensis Cry34Ab1 protein and the genetic material necessary (vector PHP17662) for its production in corn event DAS-59122-7 Bacillus thuringiensis
    [Show full text]