Department of Agricultural Economics and Rural Development Economic, Environmental, and Health Effects of GM Crops Matin Qaim Keynote Lecture, 19 th ICABR.

Slides:



Advertisements
Similar presentations
Global impact of Biotech crops: economic & environmental effects Graham Brookes PG Economics UK ©PG Economics Ltd 2008.
Advertisements

“Agricultural productivity and the impact of GM crops: What do we know?” Ian Sheldon Andersons Professor of International Trade.
The Problem: Environmental degradation in the developing world impacts political and social instability Rwanda, Population explosion -Shortage of.
Robert Wager Vancouver Island University. A billion people experience hunger and another billion lack essential vitamins and minerals in their diet The.
Biotechnology and GMOs in Africa: Unrealized Potential Biotechnology and GMOs in Africa: Unrealized Potential Randy Ploetz University of Florida, IFAS.
Arm yourself against attacks by anti-GMO activists Alan McHughen Botany and Plant Sciences University of California, Riverside, Ca.
SOURCE: “Co-existence project kicked-off”, European Biotechnology News, Vol. 4, 2005 European Commission project aimed at co- existence of GE and non-GE.
Increasing productivity and resilience Messages and project examples.
Biotechnology education at Purdue University and beyond Peter Goldsbrough Dept. of Horticulture and Landscape Architecture, Purdue University January 2006.
Genetically Modified Food. Genetically Modified Foods Which of the following does not qualify as a genetically modified food? A)Angus cattle B)Guernsey.
Corporations and Pesticides. Multinational Corporations have Control  1960s and 1970s the pesticide market was a highly profitable business venture,
Agricultural Biotechnology Marshall A. Martin Professor and Associate Head Department of Agricultural Economics Purdue University March 2000.
Providing Options for Philippine Agriculture BiotechnologyBiotechnology (Revised: June 2003)
What are GMOs The Non-GMO Project Working together to ensure the sustained availability of non-GMO food and products A Non-GMO Month Special Edition for.
The Pros of Genetically Modified Foods By: Sara Gregg.
Genetically Modified Foods. Introduction What is it Genetic modification is the altering of a species genome to produce a desired result. This can be.
Biotechnology: International Diffusion, Recent Findings, and Opportunities for China. Carl E. Pray Agricultural, Food and Resource Economics Rutgers, the.
GM Technology (The Perfect Plant or The Next Mad Cow?) Image courtesy ofcountry2.blogspot.com Image courtesy of Egr 108 Dr. Davis J.
Export Market for Seeds from India
NDSU Agriculture TRENDS IN THE USE OF CROPS DEVELOPED THROUGH BIOTECHNOLOGY IN THE USA AND THE WORLD BY: Dr. Duane R. Berglund Professor of Plant Science.
Genetically Modified Foods
Abstract: In recent years, advances in genetic engineering and techniques of molecular biology have enabled the creation and commercial release of “Genetically.
Genetically Modified Crops and the Third World Allison Miller “Worrying about starving future generations won’t feed the world. Food biotechnology will.”
Greenpeace European Unit Towards sustainable agriculture Marco Contiero EU Policy Director – Agriculture Greenpeace European Parliament 8 December.
A MULTI - COUNTRY ASSESSMENT OF PRODUCER WILLINGNESS TO ADOPT GM RICE Alvaro Durand-Morat Ravello (Italy): June , 2015.
Biotechnology & Genetically Modified Organisms (GMOs) Food Technology.
Serving society Stimulating innovation Supporting legislation Ex-ante assessment of the potential economic and environmental impacts.
Global Status of Commercialized Biotech/GM Crops 2010 Clive James, Chair, ISAAA Randy A. Hautea, Global Coordinator, ISAAA and Director, ISAAA SEAsiaCenter.
Technische Universität München H ERBICITE TOLERANTE (HT) GENETICALLY MODIFIED RAPESEED IN GERMANY – A S OCIO -E CONOMIC A SSESSMENT 1 P HILIPP W REE AND.
Shatha Daqaq – Florine Etame – Chiara Marenco GMOs and FOOD SECURITY.
Sustainable intensification based CA for sustainable food security and poverty reduction: Initial evidences from SIMLESA Mulugetta Mekuria – SIMLESA Program.
Regulatory System Impacts on Global GM Crop Adoption Patterns Savannah Gleim 1, Stuart Smyth 1, and Peter Phillips 2 1 Department of Bioresource Policy,
Jeffrey Vitale Gaspard Vognan Marc Ouattarra Karim Traore Oumar Guigemo Burkina Faso Bollgard II ® Socio-economic Study: Outcomes from 2011 Field Surveys.
IMPACT OF GENETICALLY MODIFIED MAIZE ON SMALLHOLDER RISK IN SOUTH AFRICA 16 th ICABR Conference June 25-27, 2012 Ravello, Italy Greg Regier*, Timothy Dalton,
GMOs in fisheries  Food is an essential need and each government is expected to ensure that it is available to all its citizens.  But the challenge is.
Global Value of GM Rice Matty Demont a and Alexander J. Stein b a Africa Rice Center (AfricaRice), Saint-Louis, Senegal, b International.
Do We Need Genetically Modified Foods to Feed the World? A Scientific Perspective Peggy G. Lemaux, Ph.D. University of California, Berkeley.
How we feed 9 billion people David Zilberman ELP 2011.
Virtual Academy for the Semi Arid Tropics Course on Insect Pests of Groundnut Module 1: About Sorghum After completing this lesson, you have learned to.
THE DEVELOPMENT IMPACT TOWARDS NUTRITION, HEALTH AND ENVIRONMENT GENETICALLY MODIFIED FOODS DR NORHASMAH SULAIMAN DEPARTMENT OF RESOURCES MANAGEMENT AND.
North Dakota Wheat Commission State Meeting December 2010.
The case against GM crops Alissa Cook policy officer Soil Association.
Biotechnology Priorities for South Africa Prof. Diran Makinde AfricaBio Cape Town- 14/15 April 2003.
1 SOUTH AFRICAN AND GLOBAL STATUS OF COMMERCIALIZED BIOTECH CROPS PRESENTATION AT THE ISAAA-SOUTH AFRICAN MEDIA CONFERENCE CENTURION, SOUTH AFRICA 8 MARCH.
By:Mohamed Al Marzouqi
Global Adoption, Impact and Future Prospects of Commercialized
After successful completion of this Lesson, you have learned to answer: 1.Why sorghum cultivation is important? 2.Can sorghum crop yield comparable to.
Biosecurity in agricultural field within neoliberal policies Schaper and Parada, 2001; Melgarejo et al., 2002; Russell, 2008; Azadi and Ho, 2009; Qaim,
A Brief History of Agricultural Technology Senate District Forum on GMO’s & GMO Labeling Senate District Forum on GMO’s & GMO Labeling Watertown, MA October.
Will New technologies save the planet? An Agricultural Perspective. David C. Heering, Ph.D Monsanto Company.
I S A A A Global Status of Commercialized Biotech/GM Crops: 2013 SEMINAR Seoul, Korea 17 February, February, 2014 Global Status of Commercialized.
 To increase crop yields, we can mix the genes of similar types of organisms and mix the genes of different organisms. Artificial selection has been.
“Global Status of Commercialized Biotech/GM Crops: 2014”.
A Plateful of Promises. Crops whose DNA has been modified to produce certain traits. Such as:  Resistance to insects and herbicides  Protecting itself.
Genetic Modification of Food. The Rise of GMOs In the 1980’s and 1990’s with major advances in the field of genetics, scientists were able to create crops.
Genetically Modified Foods (GM or GMO foods). What is a Genetically Modified (GM) Food? Foods that contain an added gene sequence Foods that contain an.
GENETICALLY MODIFIED ORGANISM (GMO) TECHNOHOLICS.
Global Impact of Biotech Crops: economic & environmental effects Graham Brookes PG Economics Ltd UK ©PG Economics Ltd 2016.
M. MAKU UFH RESEARCH IN AGRICULTURAL INNOVATIONS AND DEVELOPMENT FOR IMPROVED FOOD SECURITY 2016 PRE CONFERENCE WORKSHOP UNIVERSITY OF FORT HARE, 26 FEBRUARY.
Graham Brookes, Farzad Taheripour, and Wallace E. Tyner
Role of GMOs in Food and Health Security
Economic and Social Benefits of GM Cotton
GMO and agriculture: pest management and how the landscape has changed Midwest and MidContinental Chapter of the Medical Library Association Micheal D.K.
The Green Revolution - Changing the Way We Eat
OMG GMOs – Review Notes.
Herbicide Resistance and GMO’s
GMO Fact or Fiction?.
GMO Fact or Fiction?.
GMO Fact or Fiction?.
Presentation transcript:

Department of Agricultural Economics and Rural Development Economic, Environmental, and Health Effects of GM Crops Matin Qaim Keynote Lecture, 19 th ICABR Conference June 2015, Ravello, Italy

Department of Agricultural Economics and Rural Development GM crops: controversial topic  The public and policy debate is primarily focused on risks  In the EU and elsewhere, regulatory procedures were put in place treating GMOs very differently from other technologies  However, 30 years of research and 20 years of commercial experience have shown that GM crops are not inherently more risky than conventionally bred crops  This conclusion was drawn by Science Academies from all over the world and by International Organizations such as WHO, FAO, EU Research Directorate etc.  The public has not taken note of this scientific evidence PAS Study Week

Department of Agricultural Economics and Rural Development Beyond risks, what do we know about GM crop impacts? PAS Study Week

Department of Agricultural Economics and Rural Development 4 Global adoption of GM crops Source: James (2014).

Department of Agricultural Economics and Rural Development 5 Which countries? (>0.1 million ha) Industrialized countries: USA, Canada, Australia, Spain Developing countries: Brazil, Argentina, India, China, Paraguay, Pakistan, South Africa, Uruguay, Bolivia, Philippines, Burkina Faso, Myanmar, Mexico, Colombia, Sudan Which GM crops/traits? Herbicide tolerance (HT): soybean, maize, canola, alfalfa, sugarbeet Insect resistance (Bt): maize, cotton (partly stacked with HT)

Department of Agricultural Economics and Rural Development Impact studies  Many impact studies carried out over the last 20 years: Focusing on different countries With different types of data With different methodologies With different results PAS Study Week  GMO supporters and opponents refer to their “preferred studies” in the debate, leading to further polarization  Meta-analysis can be useful to: Draw broader lessons from the cumulated evidence Explain reasons for heterogeneity in impacts

Department of Agricultural Economics and Rural Development Meta-analysis of GM crop impacts PAS Study Week Klümper and Qaim (2014, PLoS ONE) *, **, *** means significant at the 10%, 5%, and 1% level, respectively.

Department of Agricultural Economics and Rural Development Distribution of GM yield effects PAS Study Week Source: Klümper and Qaim (2014).

Department of Agricultural Economics and Rural Development Meta-analysis PAS Study Week (1) All GM crops (2) Insect resistance (3) Herbicide tolerance Yield21.6***24.9***9.3** Pesticide quantity-36.9***-41.7***2.4 Pesticide cost-39.2***-43.4***-25.3*** Total production cost3.35.2**-6.8 Farmer profit68.2***68.8***64.3 Source: Klümper and Qaim (2014). Breakdown by type of technology

Department of Agricultural Economics and Rural Development Breakdown by geographical regions PAS Study Week Yield Pesticide quantity Pesticide cost Farmer profit Developing country (dummy) 14.17*** ***59.52*** N Meta-regression results (percentage point effects) Source: Klümper and Qaim (2014). Developing-country farmers benefit more from GM crops: 1.Because they suffer more from pest and disease problems 2.Because most GM technologies are not patented there, so that seed prices are cheaper than in developed countries

Department of Agricultural Economics and Rural Development Aggregate global effects  The aggregate farm level benefits of GM crops at the global level were estimated at 20.5 billion US$ in 2013 (Brookes and Barfoot, 2015)  GM technology adoption has contributed to a 24% reduction in pesticide environmental/ health impacts  HT has reduced GHG emissions due to reduced tillage (less fuel use, more carbon sequestration in soils)  Due to weed resistance to glyphosate, some of the environmental benefits of HT crops have been decreasing recently (not yet an issue for Bt)  Without GM yield advantages, 25 million ha of additional farmland would have been required PAS Study Week

Department of Agricultural Economics and Rural Development 12 Bt cotton adoption in India In 2014: 11.6 m ha (95%) Grown by around 8 million smallholders

Department of Agricultural Economics and Rural Development IAAE Impact analysis with panel data Survey of 530 farm households in: Maharashtra Andhra Pradesh Karnataka Tamil Nadu Survey carried out four times between 2002 and 2009 Statistical differencing techniques to control for biases

Department of Agricultural Economics and Rural Development Bt impact on insecticide use PAS Study Week Source: Krishna and Qaim (2012).

Department of Agricultural Economics and Rural Development Bt impact on yield and farmer profit in India 15 Yield (kg/ha) Profit ($/ha) Bt effect 311*** (+24%) 94*** (+50%) Change over time0 / + Sources: Kathage and Qaim (2012), Qaim and Kouser (2013). Household consumption value (US$) Calorie consumption (kcal/person) Calories from high-value food (kcal/person) Bt effect 321** (+18%) 145*** (+5%) 47*** (+7%) Bt impact on household living standard

Department of Agricultural Economics and Rural Development 16 Household income effects per ha of cotton Extremely poorModerately poorNonpoor All households Bt Conventional US$/ha $246/ha x 11.6 m = $2.9 billion Source: Subramanian and Qaim (2010).

Department of Agricultural Economics and Rural Development PAS Study Week Sources: Kathage and Qaim (2012), Qaim and Kouser (2013). TotalTox ITox II Tox III & IV Bt effect ( )-1.11***-0.56*-0.49*-0.06 Bt effect ( )-1.79***-1.08***-0.66***-0.06** Environmental and health effects of Bt Effects on pesticide use by toxicity class (per acre) Source: Kouser and Qaim (2011), Cases per acre Cases in total India (million) Bt effect-0.104***-2.98*** Effects on cases of acute pesticide poisoning

Department of Agricultural Economics and Rural Development Effects on varietal diversity PAS Study Week Mean number of cotton varieties grown by sample farms Source: Krishna, Qaim, Zilberman (2015).

Department of Agricultural Economics and Rural Development Future prospects  Evidence suggests that GM crops contribute to sustainable development (economic, social, environmental)  Effects differ by type of technology and context. The range of commercialized GM crops still limited  Future technologies are even more promising  Many interesting GM technologies tested in the field:  Drought-tolerant and salt-tolerant maize, rice, and wheat  Maize and rice with higher nitrogen use efficiency  Micronutrient-rich rice, sorghum, cassava, and banana  Pest- and disease-resistant rice, cassava, pulses, vegetables  Etc. PAS Study Week

Department of Agricultural Economics and Rural Development …Future prospects PAS Study Week  Will these promising technologies ever make it through all the regulatory and societal hurdles?  As for any transformative technology, there are certain issues that need to be addressed, e.g.:  Market power  Seed market infrastructure  Unsustainable agricultural practices  But technology bans are hardly the best answer. More sensible regulation and better policies are required Further reading: Qaim, M. (2015). Genetically Modified Crops and Agricultural Development. Palgrave Macmillan (to be published in Nov. 2015).