Climate

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Stanford University
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2012-2013 Visiting Professor
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So-Min Cheong is a visiting professor at the Walter H. Shorenstein Asia-Pacific Research Center for the 2012–2013 academic year, and is an associate professor of geography at the University of Kansas. Her current research focuses on the social consequences of environmental disasters and climate change adaptation in Korea and the United States. 

Cheong is the author of numerous publications in top interdisciplinary environment, policy, and geography journals such as: Nature Climate Change; Climatic Change; Ecology and SocietyEnvironment and PlanningTransactions of the Institute of the British Geographers; and Marine Policy. She has also worked on several technical reports for the Korean government on the topics of coastal management, adaptation, boundary issues, and disaster management. She was a lead author of the Intergovernmental Panel on Climate Change (IPCC) Special Report on managing climate extremes, and is currently a contributing author of the IPCC 5th Assessment Report. Her recent awards include the NSF CAREER award and the Korea Foundation Fellowship.  

Cheong received her PhD in geography from the University of Washington, where she also earned MA degrees in marine affairs and international studies. She earned her BA in English from Yonsei University in Korea, and was an exchange student at Reed College in Portland, Oregon.  

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Paul Collier will talk about how to manage the difference between helpful and damaging commercialisation, and puts forth three arguments. First, we need to face the tough reality that African food production has failed to keep pace with demand over the course of several decades, suggesting that there is a deep problem with respect to innovation and investment given the way African agriculture has been organised. Second, we need to accept that climate change, population growth, and income gains from natural resources will all stress this imbalance further: the prospect is for widening food deficits with business as usual. Third, two major changes are afoot. Globally, the model of commercial tropical agriculture pioneered in Brazil has demonstrated that output can be raised very substantially by changing the mode of organisation. Africa is now starting to open land markets to large foreign management. Superficially this looks like Brazil2, but it may instead be a wave of speculative acquisitions triggered by the price peaks of 2008.

Collier is the Director of the Centre for the Study of African Economies and Professor of Economics and Public Policy at the Blavatnik School of Government, Oxford University. He is currently Advisor to the Strategy and Policy Department of the IMF, advisor to the Africa Region of the World Bank; and he has advised the British Government on its recent White Paper on economic development policy. He has been writing a monthly column for the Independent, and also writes for the New York Times, the Financial Times, the Wall Street Journal, and the Washington Post. His research covers the causes and consequences of civil war; the effects of aid and the problems of democracy in low-income and natural-resources rich societies.

Derek Byerlee's talk will lay out a number of models of inclusive agribusiness growth, grouped into three categories (i) institutional arrangements for improving productivity of smallholders operating in spot markets, (ii) various types of contract farming arrangements, and (iii) large-scale farms that generate jobs and/or include community equity shares. The institutional and policy context as well as commodity characteristics that favor these models are discussed within a simple transactions cost framework. He will also discuss cross-cutting policy priorities to enable the growth of commercial agriculture and agribusiness. These include continuing reforms to liberalize product and input markets, access to technology and skills, stimulating financial and risks markets, securing land rights, and investment in infrastructure through public-private partnerships. 

Byerlee has dedicated his career to agriculture in developing countries, as a teacher, researcher, administrator and policy advisor. He has lived and worked for a total of 20 years in the three major developing regions-Africa, Asia, and Latin America. After beginning in academia at Michigan State University, he spent the bulk of his career at the International Maize and Wheat Improvement Center (CIMMYT). There as a economist and research manager he made notable contributions in forging a new spirit of collaboration between scientists, economists and farmers. He also published widely on efficiency of research systems, spillovers, and sustaining productivity in post green revolution agriculture. After joining the World Bank in 1994, he has applied his experience of research systems to finding innovative approaches to funding and organizing agricultural research, including emerging challenges in biotechnology policy. Since 2003, he has provided strategic direction and led policy world for the agricultural and rural sector in the World Bank.

 

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Paul Collier Director, Centre for the Study of African Economies, Oxford University Speaker
Derek Byerlee Independent Scholar, Director, 2008 World Development Report Speaker
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David Lobell
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Rising temperatures, an uncertain water supply and more abundant pests threaten California's multi-billion-dollar crop industry. FSE agricultural scientist David Lobell weighs in on climate impacts on California's cherry crop--the canary in the climate coal mine--as part of a half-hour documentary on "Heat and Harvest", a co-production of KQED and the Center for Investigative Reporting,
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Jennifer Burney, named a National Geographic Emerging Explorer in 2011, continues her work on agricultural solutions for struggling farmers. She observes, for example, that “as great as local organic food may be in my own kitchen, we’ll never feed the whole world that way. Like it or not, ‘Big Agriculture’ is why we’ve been able to sustain a hungry planet; and thanks to investments in technology, significant climate impact has been mitigated.” One key contribution she made was introducing solar irrigation to farmers in Benin, Africa.

Click here to read full interview.

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Originally appeared in The Chicago Council's Global Agricultural Development Initiative Global Food For Thought blog.


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For all of the talk about the need to adapt to climate change, we still know fairly little about two basic questions: what works best, and how much can adaptation deliver? It‘s time to learn quickly.

Why don’t we know more? It would be easy to blame our ignorance on complacency. There is a tendency to marvel at the progress made in agriculture in the past 50 years, and assume it can handle anything. For example, the USDA declared in the early 1970s that new technologies meant “man has reduced variation in yields in both good and bad weather.” This optimism quietly faded after a series of bad harvests in the late 1970’s and 1980’s, including the big drought of 1988. People realized that a period of unusually benign weather, and not the technological gains themselves, had limited volatility during the middle of the 20th century.

It is also tempting to blame ignorance on inexperience. After all, many people continue to view climate change as something to deal with in the future. But the evidence is clear that climate has already been changing over the past 30 years in most agricultural areas, and farmers are doubtlessly trying to adapt. Up until now, the United States was an exception to that trend. But the 2012 drought has changed that, and projections indicate that years like this will be increasingly common in the coming decades.

With widespread evidence for climate change and its impacts, complacency and inexperience should give way to rigorous evaluations of what has happened. For example, why was US agriculture not better prepared for the 2012 drought? And did anything work well that can be scaled up?

A lot has changed in US agriculture since the 1988 drought, and many of the changes were textbook examples of what should help to reduce impacts of hot summers. Farmers now sow corn and soybeans more than a week earlier on average, and use longer maturing varieties than in 1988. Advances in cold tolerance along with spring warming trends allowed corn to expand in northern states where temperatures are cooler. For example, North and South Dakota increased corn area by more than 35% (nearly 2.5 million acres) just since 2009. Carbon dioxide levels, which improve crop water use efficiency, have increased by more than 10% since 1988. And farmers have begun to grow drought tolerant seeds that were unavailable in 1988.

Yet when the 2012 drought arrived, with fairly similar characteristics to 1988, impacts on crop yields were roughly the same. Corn yields are expected to be about 25% below trend, close to the 28% drop in 1988.

What can we learn from this experience? It is too early to say anything definitive, but two explanations seem plausible. First, it may be that some of the above changes were truly beneficial, but were counteracted by other changes making agriculture more, not less, sensitive to weather. For example, breeding progress in corn has generally been faster for good conditions than bad. As farmers become even better at eliminating yield losses from pests, nutrient stress, and other factors, the benefits of having favorable rainfall and temperature become that much greater, and the relative damages of not having them become that much worse.

A second possibility, of course, is that the adaptive changes in agriculture simply did not help much in dealing with adverse weather. For example, migrating corn northward may help, but the vast majority of corn production remains where it has been for decades, so the quantitative effect is small.

Hopefully researchers will quickly distinguish between these and other explanations, and the lessons can help guide efforts to further adapt. But any explanation will likely imply that there are limits to how much adaptation can reduce impacts of climate change. This fact does not diminish the urgency and importance of efforts to adapt to climate variability and change throughout the world. But it is a reminder that greenhouse gas mitigation is pivotal in any strategy to reduce impacts of climate change. Adaptation can only do so much.

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This study quantifies worldwide health effects of the Fukushima Daiichi nuclear accident on 11 March 2011. Effects are quantified with a 3-D global atmospheric model driven by emission estimates and evaluated against daily worldwide Comprehensive Nuclear-Test-Ban Treaty Organization (CTBTO) measurements and observed deposition rates. Inhalation exposure, ground-level external exposure, and atmospheric external exposure pathways of radioactive iodine-131, cesium-137, and cesium-134 released from Fukushima are accounted for using a linear no-threshold (LNT) model of human exposure. Exposure due to ingestion of contaminated food and water is estimated by extrapolation. We estimate an additional 130 (15–1100) cancer-related mortalities and 180 (24–1800) cancer-related morbidities incorporating uncertainties associated with the exposure–dose and dose–response models used in the study. Sensitivities to emission rates, gas to particulate I-131 partitioning, and the mandatory evacuation radius around the plant may increase upper bound mortalities and morbidities to 1300 and 2500, respectively. Radiation exposure to workers at the plant is projected to result in 2 to 12 morbidities. An additional 600 mortalities have been reported due to mandatory evacuations. A hypothetical accident at the Diablo Canyon Power Plant in California, USA with identical emissions to Fukushima may cause 25% more mortalities than Fukushima despite California having one fourth the local population density, due to differing meteorological conditions.


Mark Z. Jacobson is Director of the Atmosphere/Energy Program and Professor of Civil and Environmental Engineering at Stanford University. He is also a Senior Fellow of the Woods Institute for the Environment and Senior Fellow of the Precourt Institute for Energy. He received a B.S. in Civil Engineering with distinction, an A.B. in Economics with distinction, and an M.S. in Environmental Engineering from Stanford University, in 1988. He received an M.S. in Atmospheric Sciences in 1991 and a PhD in Atmospheric Sciences in 1994 from UCLA. He has been on the faculty at Stanford since 1994. His work relates to the development and application of numerical models to understand better the effects of energy systems and vehicles on climate and air pollution and the analysis of renewable energy resources. He has published two textbooks of two editions each and ~130 peer-reviewed scientific journal articles. He received the 2005 American Meteorological Society Henry G. Houghton Award for “significant contributions to modeling aerosol chemistry and to understanding the role of soot and other carbon particles on climate.” He has served on the Energy Efficiency and Renewables Advisory Committee to the U.S. Secretary of Energy.

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Mark Jacobson Professor of Civil and Environmental Engineering Speaker Stanford University
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Abstract

There is enough power in Earth’s winds to be a primary source of near-zero-emission electric power as the global economy continues to grow through the twenty-first century. Historically, wind turbines are placed on Earth’s surface, but high-altitude winds are usually steadier and faster than near-surface winds, resulting in higher average power densities1. Here, we use a climate model to estimate the amount of power that can be extracted from both surface and high-altitude winds, considering only geophysical limits. We find wind turbines placed on Earth’s surface could extract kinetic energy at a rate of at least 400 TW, whereas high-altitude wind power could extract more than 1,800 TW. At these high rates of extraction, there are pronounced climatic consequences. However, we find that at the level of present global primary power demand (~ 18 TW; ref. 2), uniformly distributed wind turbines are unlikely to substantially affect the Earth’s climate. It is likely that wind power growth will be limited by economic or environmental factors, not global geophysical limits.

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Sharon Gourdji, postdoctoral scholar at Stanford's Center on Food Security and the Environment, has been awarded a Fulbright Scholar grant to assess climate change adaptation strategies for maize-bean smallholder farmers in Central America during the 2012-2013 academic year. This will be a collaboration with the International Center for Tropical Agriculture (CIAT) in Cali, Colombia and with a global cross-CGIAR initiative called Climate Change and Food Security.

Proposal abstract:

Maize and bean production provides a livelihood for millions of subsistence-level farmers in Central America. However by 2050, projected climate change threatens the viability of maize-bean production in the region, with some areas becoming completely unsuitable, and others suitable only with sufficient agronomic adaptations. In this proposal, we first assess the impact that climate trends have had on yields and farmer livelihoods in the last 30 years. Next, we look at two adaptation strategies to help farmers cope with future changes: the development and spread of more heat and drought-tolerant varieties, especially for bean, and the uptake of small-scale irrigation to cope with unreliable rainfall and expand production into the dry season.

About the Fullbright NEXUS program:

The Fulbright NEXUS program this year is focused on sustainable development in the Western Hemisphere (http://www.cies.org/NEXUS/). Gourdji is one of approximately 1,100 U.S. faculty and professionals who will travel abroad through the Fulbright U.S. Scholar Program in 2012-2013.

The Fulbright Program is the flagship international educational exchange program sponsored by the U.S. government and is designed to increase mutual understanding between the people of the United States and the people of other countries. The primary source of funding for the Fulbright Program is an annual appropriation made by the U.S. Congress to the U.S. Department of State, Bureau of Educational and Cultural Affairs. Participating governments and host institutions, corporations and foundations in foreign countries and in the United States also provide direct and indirect support. Recipients of Fulbright grants are selected on the basis of academic or professional achievement, as well as demonstrated leadership potential in their fields. The Program operates in over 155 countries worldwide.

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PhD student, Emmett Interdisciplinary Program in Environment and Resources
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Frances C. Moore is a PhD student in the Emmett Interdisciplinary Program in Environment and Resources at Stanford University. She is working with David Lobell and Larry Goulder to study how farmers are likely to adapt to climate change so as to reduce its negative effects. Understanding the likely rate and effectiveness of this autonomous adaptation is important for accurately estimating the future impact of climate change on agricultural production and food security. Fran is combining experimental, statistical, and field-based methods from economics, anthropology and psychology with climate data and models in order to better model adaptation in agriculture.

Fran’s previous work focused on the negotiation of international climate agreements and she has published several articles on the mitigation potential of short-lived greenhouse gases in developing countries and on the negotiation of international adaptation policy. Fran is a Stanford Interdisciplinary Graduate Fellow, a former Switzer Foundation Fellow and a former NSF Graduate Research Fellow. She holds a Masters of Environmental Science from the Yale School of Forestry and Environmental Studies and a B.A., summa cum laude, in Earth and Planetary Science from Harvard University.

Lobell laboratory

The Yaqui Valley is the birthplace of the Green Revolution and one of the most intensive agricultural regions of the world, using irrigation, fertilizers, and other technologies to produce some of the highest yields of wheat anywhere. It also faces resource limitations, threats to human health, and rapidly changing economic conditions. In short, the Yaqui Valley represents the challenge of modern agriculture: how to maintain livelihoods and increase food production while protecting the environment.

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