The Gmo Emperor Has No Clothes
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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. -
Genuity Smartstax Corn: an Amazing Advancement in GE Crop
Genuity SmartStax corn: An amazing advancement in GE crop 05 May 2010 | News Image not found or type unknown Using GS corn as a platform would be a quicker way of enhancing the number of transgenes in a single crop variety The trademarked Genuity-SmartStax corn (GS corn) containing eight transgenes-six for pest control and two for weed control- developed through collaboration between Monsanto and Dow AgroSciences, introduced few months ago, is an amazing development in crop genetic engineering (GE). Incorporated into the best of corn varieties, this event is expected to provide the most comprehensive pest and weed control system available, leading to an impressive crop health and increase of whole farm crop yields. The development of Genuity SmartStax corn from the shaky origins of genetic engineering is a fascinating reading. Genuity SmartStax corn GS corn takes care of the major pests, such as the European and southwestern corn borer, northern and western corn rootworm, western bean cutworm, black cutworm, corn earworm, and fall armyworm and also imparts tolerance to both glyphosate and glufosinate herbicides. In addition, the coming together of two giants in the seed industry will encourage other private-private partnerships to further this initiative. Eight transgenes in GS corn Tolerance to aerial pests (three Bt genes): Cry 1A.105 (Monsanto), Cry 2Ab2 (Monsanto) and Cry 1F (Dow). Tolerance to subsoil pests (three Bt genes): Cry 3Bb1 (Monsanto), Cry 34Ab1 (Dow) and Cry 35Ab1 (Dow). Tolerance to herbicides (two genes): Glyphosate (Roundup Ready, Monsanto) and Glufosinate (LibertyLink, Dow, under license from Bayer). Biosecurity evaluation Transgenic crops are evaluated for product efficacy and biosecurity in the laboratory, green house and in the field for over 10 years before commercialization. -
Combatting Monsanto
Picture: Grassroots International Combatting Monsanto Grassroots resistance to the corporate power of agribusiness in the era of the ‘green economy’ and a changing climate La Via Campesina, Friends of the Earth International, Combat Monsanto Technical data name: “Combatting Monsanto Grassroots resistance to the corporate power of agribusiness in the era of the ‘green economy’ and a changing climate” author: Joseph Zacune ([email protected]) with contributions from activists around the world editing: Ronnie Hall ([email protected]) design and layout: Nicolás Medina – REDES-FoE Uruguay March 2012 Combatting Monsanto Grassroots resistance to the corporate power of agribusiness in the era of the ‘green economy’ and a changing climate INDEX Executive summary / 2 Company profile - Monsanto / 3 Opposition to Monsanto in Europe / 5 A decade of French resistance to GMOs / 6 Spanish movements against GM crops / 9 German farmers’ movement for GM-free regions / 10 Organising a movement for food sovereignty in Europe / 10 Monsanto, Quit India! / 11 Bt brinjal and biopiracy / 11 Bt cotton dominates cotton sector / 12 Spiralling debt still triggering suicides / 12 Stopping Monsanto’s new public-private partnerships / 13 Resistance to Monsanto in Latin America / 14 Brazilian peasant farmers’ movement against agribusiness / 14 Ten-year moratorium on GM in Peru / 15 Landmark ruling on toxic soy in Argentina / 15 Haitians oppose seed aid / 16 Guatemalan networks warn of new biosafety proposals / 17 Battle-lines drawn in the United States / 17 Stopping the -
General Court of the European Union PRESS RELEASE No 160/13 Luxembourg, 13 December 2013
General Court of the European Union PRESS RELEASE No 160/13 Luxembourg, 13 December 2013 Judgment in Case T-240/10 Press and Information Hungary v Commission The General Court has annulled the Commission’s decisions concerning authorisation to place on the market the genetically modified potato Amflora The Commission infringed the procedural rules of the systems for authorising GMOs in the European Union In the territory of the European Union, genetically modified organisms (GMOs) may be released into the environment or placed on the market only if consent has been given, subject to specific conditions and granted with a view to specified uses, after a scientific assessment of the risks. The authorisation system consists of two different procedures which are applied depending on the intended use of the GMOs. The aim of the first procedure, whose rules are laid down by Directive 2001/18/EC1, is to authorise GMOs with a view to their deliberate release into the environment. Within the framework of that procedure, it is in principle for the Member State with which an undertaking has lodged an application for this purpose to issue consent. However, the other Member States, and also the Commission, may raise objections vis-à-vis the intended consent decision. The second authorisation procedure, set up by Regulation 1829/20032, concerns genetically modified food and feed. In that case, the application for consent is assessed at EU level. Where, in the context of the first procedure, an objection has been raised or, in the context of the second procedure, an application for consent has been submitted, the final decision on the authorisation is taken by the Commission or by the Council on the basis of the scientific opinions of the European Food Safety Authority (EFSA). -
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. -
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? -
Governing Biosafety in India: the Relevance of the Cartagena Protocol
Belfer Center for Science & International Affairs Governing Biosafety in India: The Relevance of the Cartagena Protocol Aarti Gupta 2000-24 October 2000 Global Environmental Assessment Project Environment and Natural Resources Program CITATION, CONTEXT, AND PROJECT ACKNOWLEDGEMENTS This paper may be cited as: Gupta, Aarti. “Governing Biosafety in India: The Relevance of the Cartagena Protocol.” Belfer Center for Science and International Affairs (BCSIA) Discussion Paper 2000-24, Environment and Natural Resources Program, Kennedy School of Government, Harvard University, 2000. Available at http://environment.harvard.edu/gea. No further citation is allowed without permission of the author. Comments are welcome and may be directed to the author at the Belfer Center for Science and International Affairs, John F. Kennedy School of Government, Harvard University, 79 John F. Kennedy Street, Cambridge, MA 02138; Email aarti_gupta@ harvard.edu. The Global Environmental Assessment project is a collaborative team study of global environmental assessment as a link between science and policy. The Team is based at Harvard University. The project has two principal objectives. The first is to develop a more realistic and synoptic model of the actual relationships among science, assessment, and management in social responses to global change, and to use that model to understand, critique, and improve current practice of assessment as a bridge between science and policy making. The second is to elucidate a strategy of adaptive assessment and policy for global environmental problems, along with the methods and institutions to implement such a strategy in the real world. The Global Environmental Assessment (GEA) Project is supported by a core grant from the National Science Foundation (Award No. -
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. -
Directx™ 12 Case Studies
DirectX™ 12 Case Studies Holger Gruen Senior DevTech Engineer, 3/1/2017 Agenda •Introduction •DX12 in The Division from Massive Entertainment •DX12 in Anvil Next Engine from Ubisoft •DX12 in Hitman from IO Interactive •DX12 in 'Game AAA' •AfterMath Preview •Nsight VSE & DirectX12 Games •Q&A www.gameworks.nvidia.com 2 Agenda •Introduction •DX12 in The Division from Massive Entertainment •DX12 in Anvil Next Engine from Ubisoft •DX12 in Hitman from IO Interactive •DX12 in 'Game AAA' •AfterMath Preview •Nsight VSE & DirectX12 Games •Q&A www.gameworks.nvidia.com 3 Introduction •DirectX 12 is here to stay • Games do now support DX12 & many engines are transitioning to DX12 •DirectX 12 makes 3D programming more complex • see DX12 Do’s & Don’ts in developer section on NVIDIA.com •Goal for this talk is to … • Hear what talented developers have done to cope with DX12 • See what developers want to share when asked to describe their DX12 story • Gain insights for your own DX11 to DX12 transition www.gameworks.nvidia.com 4 Thanks & Credits •Carl Johan Lejdfors Technical Director & Daniel Wesslen Render Architect - Massive •Jonas Meyer Lead Render Programmer & Anders Wang Kristensen Render Programmer - Io-Interactive •Tiago Rodrigues 3D Programmer - Ubisoft Montreal www.gameworks.nvidia.com 5 Before we really start … •Things we’ll be hearing about a lot • Memory Managment • Barriers • Pipeline State Objects • Root Signature and Shader Bindings • Multiple Queues • Multi threading If you get a chance check out the DX12 presentation from Monday’s ‘The -
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. -
Biotechnology Benefits for Corn Production
Agronomic SPOTLIGHT Biotechnology Benefits for Corn Production Many corn products have multiple biotech traits that provide insect protection and herbicide tolerance that promote better plant health, stress tolerance, and yield potential. University of Wisconsin field research trials show that genetically modified corn products (GM) have a number of benefits over conventional corn to help manage downside risk under variable yield conditions and protect yield potential. GM products with insect and herbicide tolerance not only protect corn yield potential, they provide other benefits as well. The large productivity gains in corn production made during the GM corn helped overcome the continuous corn rotation yield last several decades have come primarily from advanced plant penalty that conventional corn experienced during the 2000 breeding techniques and improved corn management of the to 2005 comparison period. crop. Research has determined that about 50% of on-farm yield The University of Wisconsin research shows that farmers gains since 1934 can be attributed to improved management 2 planting GM corn products in a corn-on-corn rotation in 2000 practices. Breeding and management interact as both are had a lower potential risk of low yield (175 bu/acre) than farmers necessary to sustain increased production. Yield stability across using a conventional corn-on-corn rotation (Figure 1). In 2005, a wide range of environments is one of the most important 1 the negative impact of the corn-on-corn rotation was not selection targets for corn breeders. Consequently, improved apparent for GM corn products but was still a problem in stress tolerance for higher planting densities, coupled with conventional corn-on-corn rotation (Figure 2). -
Organic Farming Dwarfs GM Crop Production in Europe
for the people | for the planet | for the future Organic farming dwarfs GM crop production in Europe February 2012 The area dedicated to growing genetically modified (GM) crops in the European Union remains insignificant when compared with conventional and organic farming. In 2011, GM crops were grown on 0.1% of arable land in Europe, compared with nearly 4% for organic. Nineteen member states cultivated no GM crops at all. The EU has 110,849,000 hectares of arable land (excluding permanent crops as vineyards), of which only 114,525 hectares were planted with GM crops in 2011. Table 1: GMO cultivation in European countries, 2008-2011 Country and crops 2008(ha) 2009(ha) 2010(ha) 2011(ha) Cultivation of Maize Mon810 Spain (1) 79,269 76,057 67,726 97,346 Portugal (2) 4,856 5,202 4,869 7,723 Czech Republic (3) 8,380 6,480 4,830 5,090 Poland (4) 3,000 3,000 3000 3,000 Slovakia (5) 1,931 875 1,248 760 Romania (6) 6,130 3,244 823 588 Germany (7) 3,173 0 0 0 Cultivation of potato Amflora Sweden (8) 0 0 103 16 Germany (9) 0 0 15 2 106,739 94,858 82,614 114,525 The main exception to this picture of GM crop rejection in Europe is Spain where 97,346 hectares of Monsanto’s maize were planted in 2011. The increase was mainly caused by the general expansion of the area cultivated with maize from 311,900 (21.7% GM) to 368,300 (26.4% GM) hectares.