Climate

Nearly 20 years into the post-cold war era, the existing multilateral architecture of international organizations, treaties, and alliances shows signs of acute distress. Built for a different age, different threats, and different structure of world power, many of its institutions cannot meet today's challenges. The United Nations and the nuclear Non-Proliferation Treaty are two such institutions, designed for a different world.

The Stanford Program on Energy and Sustainable Development (PESD) is concluding a major study aimed at understanding the future role for natural gas in the rapidly growing economies of China and India. On June 4-5, 2007 PESD will convene a meeting at Stanford to present the results of the study and engage with participants from industry and academia on the implications of this work for global energy markets.

PESD has partnered with leading regional research centers in both China and India to construct detailed assessments of the key drivers for future gas demand in both countries. At the June meeting PESD and its research collaborators will share results from the natural gas study and explore the study's broader implications on China and India's role in the future world energy market. Meeting participants will include representatives from government, industry, academia, and non-government organizations from the United States, China, India, Europe, and others.

Panels at the meeting with focus primarily on the implications of the study on larger questions of energy and global geopolitics, including:

§ Competitiveness of natural gas vis a vis coal in the power sector

§ Geopolitical implications of major supply projects

§ Regulatory reform and pricing

§ Implications for CO2 and climate change

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Stephen Schneider is the Melvin and Joan Lane Professor for Interdisciplinary Environmental Studies, a professor in the Department of Biological Sciences, co-director at CESP, co-director of the Interdisciplinary Program in Environment and Resources, and professor by courtesy in the Department of Civil Engineering.

Schneider's current global change research interests include food and climate and other environmental and science public policy issues; ecological and economic implications of climatic change; integrated assessment of global change; climatic modeling of paleoclimates and of human impacts on climate, e.g., carbon dioxide "greenhouse effect" and environmental consequences of nuclear war. He is also interested in advancing public understanding of science and in improving formal environmental education in primary and secondary schools.

He has served as a consultant to federal agencies and-or White House staff in the Nixon, Carter, Reagan, Bush, and Clinton administrations. In 1998, he became a foreign member of the Academia Europaea, Earth and Cosmic Sciences Section. Schneider was elected chair of the American Association for the Advancement of Sciences Section on Atmospheric and Hydrospheric Sciences (1999-2001) and was elected to membership in the U.S. National Academy of Sciences in April 2002. He was a member of the scientific staff of NCAR from 1973-1996, where he co-founded the Climate Project.

Schneider was honored in 1992 with a MacArthur Fellowship for his ability to integrate and interpret the results of global climate research. He also received, in 1991, the American Association for the Advancement of Science/Westinghouse Award for Public Understanding of Science and Technology, for furthering public understanding of environmental science and its implications for public policy.

He has authored or co-authored over 200 scientific papers, proceedings, legislative testimonies, edited books and book chapters; some 120 book reviews, editorials, published newspaper and magazine interviews and popularizations. In 1975, he founded the interdisciplinary journal Climatic Change and continues to serve as its editor. He is also the editor-in-chief of the Encyclopedia of Climate and Weather and author of The Genesis Strategy: Climate and Global Survival; The Coevolution of Climate and Life; Global Warming: Are We Entering the Greenhouse Century? and Laboratory Earth: The Planetary Gamble We Can't Afford to Lose, among others. He is a frequent contributor to commercial and non-commercial print and broadcast media on climate and environmental issues.

Schneider received his BS and MS in mechanical engineering at Columbia University and his PhD in mechanical engineering and plasma physics from Columbia University in 1971.

Reuben W. Hills Conference Room

Stephen H. Schneider Co-director, CESP; FSI Senior Fellow and Melvin and Joan Lane Professor for Interdisciplinary Environmental Studies, Professor of Biological Sciences; Professor, by courtesy, of Civil and Environmental Engineering Speaker Stanford University
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Richard and Rhoda Goldman Conference Room

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Senior Fellow, Stanford Woods Institute and Freeman Spogli Institute for International Studies
William Wrigley Professor of Earth System Science
Senior Fellow and Founding Director, Center on Food Security and the Environment
Roz_low_res_9_11_cropped.jpg PhD

Rosamond Naylor is the William Wrigley Professor in Earth System Science, a Senior Fellow at Stanford Woods Institute and the Freeman Spogli Institute for International Studies, the founding Director at the Center on Food Security and the Environment, and Professor of Economics (by courtesy) at Stanford University. She received her B.A. in Economics and Environmental Studies from the University of Colorado, her M.Sc. in Economics from the London School of Economics, and her Ph.D. in applied economics from Stanford University. Her research focuses on policies and practices to improve global food security and protect the environment on land and at sea. She works with her students in many locations around the world. She has been involved in many field-level research projects around the world and has published widely on issues related to intensive crop production, aquaculture and livestock systems, biofuels, climate change, food price volatility, and food policy analysis. In addition to her many peer-reviewed papers, Naylor has published two books on her work: The Evolving Sphere of Food Security (Naylor, ed., 2014), and The Tropical Oil Crops Revolution: Food, Farmers, Fuels, and Forests (Byerlee, Falcon, and Naylor, 2017).

She is a Fellow of the Ecological Society of America, a Pew Marine Fellow, a Leopold Leadership Fellow, a Fellow of the Beijer Institute for Ecological Economics, a member of Sigma Xi, and the co-Chair of the Blue Food Assessment. Naylor serves as the President of the Board of Directors for Aspen Global Change Institute, is a member of the Scientific Advisory Committee for Oceana and is a member of the Forest Advisory Panel for Cargill. At Stanford, Naylor teaches courses on the World Food Economy, Human-Environment Interactions, and Food and Security. 

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Changes in the global production of major crops are important drivers of food prices, food security and land use decisions. Average global yields for these commodities are determined by the performance of crops in millions of fields distributed across a range of management, soil and climate regimes. Despite the complexity of global food supply, here we show that simple measures of growing season temperatures and precipitation--spatial averages based on the locations of each crop--explain about 30% or more of year-to-year variations in global average yields for the world's six most widely grown crops. For wheat, maize, and barley, there is a clearly negative response of global yields to increased temperatures. Based on these sensitivities and observed climate trends, we estimate that warming since 1981 has resulted in annual combined losses of these three crops representing roughly 40 MT or $5 billion per year, as of 2002. While these impacts are small relative to the technological yield gains over the same period, the results demonstrate already occurring negative impacts of climate trends on crop yields at the global scale.

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Environmental Research Letters
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David Lobell
Christopher B. Field
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Objective: To describe the development of an instrument for assessing workforce perceptions of hospital safety culture and to assess its reliability and validity.

Data Sources/Study Setting: Primary data collected between March 2004 and May 2005. Personnel from 105 U.S. hospitals completed a 38-item paper and pencil survey. We received 21,496 completed questionnaires, representing a 51 percent response rate.

Study Design: Based on review of existing safety climate surveys, we developed a list of key topics pertinent to maintaining a culture of safety in high-reliability organizations. We developed a draft questionnaire to address these topics and pilot tested it in four preliminary studies of hospital personnel. We modified the questionnaire based on experience and respondent feedback, and distributed the revised version to 42,249 hospital workers.

Data Collection: We randomly divided respondents into derivation and validation samples. We applied exploratory factor analysis to responses in the derivation sample. We used those results to create scales in the validation sample, which we subjected to multitrait analysis (MTA).

Principal Findings: We identified nine constructs, three organizational factors, two unit factors, three individual factors, and one additional factor. Constructs demonstrated substantial convergent and discriminant validity in the MTA. Cronbach's  coefficients ranged from 0.50 to 0.89.

Conclusions: It is possible to measure key salient features of hospital safety climate using a valid and reliable 38-item survey and appropriate hospital sample sizes. This instrument may be used in further studies to better understand the impact of safety climate on patient safety outcomes.

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Health Services Research
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Sara J. Singer
Laurence C. Baker
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The harmful environmental effects of livestock production are becoming increasingly serious at all levels-local, regional, national and global-and urgently need to be addressed, according to researchers from Stanford, the United Nations Food and Agriculture Organization (FAO) and other organizations. The researchers, representing five countries, presented their findings on Feb. 19 at the annual meeting of the American Association for the Advancement of Science (AAAS) in San Francisco during a symposium titled "Livestock in a Changing Landscape: Drivers, Consequences and Responses."

Large-scale livestock operations provide most of the meat and meat products consumed around the world-consumption that is growing at a record pace and is projected to double by 2050, said symposium organizer Harold A. Mooney, professor of biological sciences. "We are seeing tremendous environmental problems with these operations, from land degradation and air and water pollution to loss of biodiversity," he said, noting that the developing world is especially vulnerable to the effects of these operations.

Intensive and extensive systems

Symposium co-organizer Henning Steinfeld of the FAO Livestock Environment and Development initiative emphasized that intensive and extensive forms of production are beset with a range of different problems. In "intensive systems," animals are contained and feed is brought to them. "Extensive systems" generally refer to grazing animals that live off the land.

"Extensive livestock production plays a critical role in land degradation, climate change, water and biodiversity loss," Steinfeld said. For example, grazing occupies 26 percent of the Earth's terrestrial surface, and feed-crop production requires about a third of all arable land, he said. Expansion of livestock grazing land is also a leading cause of deforestation, especially in Latin America, he added. In the Amazon basin alone, about 70 percent of previously forested land is used as pasture, while feed crops cover a large part of the remainder.

"We are seeing land once farmed locally being transformed to cropland for industrialized feed production, with grasslands and tropical forests being destroyed in these land use changes, with resources feeding livestock rather than the humans who previously depended on those lands," added Mooney, who co-chaired the scientific advisory panel for the United Nations-initiated Millennium Ecosystem Assessment.

Climate change

According to the FAO, when emissions from land use are factored in, the livestock sector accounts for 9 percent of all carbon dioxide emissions derived from human-related activities, as well as 37 percent of methane emissions-primarily gas from the digestive system of cattle and other domesticated ruminants-and 65 percent of nitrous oxide gases, mostly from manure.

The problems surrounding livestock production cannot be considered in isolation, nor are they limited to the environmental impact, Mooney said, noting that economic, social, health and environmental perspectives "will be critical to solving some of these problems. We hope to develop a greater understanding of these complex issues so that we may encourage policies and practices to reduce the adverse effects of livestock production, while ensuring that humans are fed and natural resources are preserved, today and in the future."

Kathy Neal is communications manager of the Woods Institute for the Environment.

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The Amazon Basin is one of the world's most important bioregions, harboring a rich array of plant and animal species and offering a wealth of goods and services to society. For years, ecological science has shown how large-scale forest clearings cause declines in biodiversity and the availability of forest products. Yet some important changes in the rainforests, and in the ecosystem services they provide, have been underappreciated until recently. Emerging research indicates that land use in the Amazon goes far beyond clearing large areas of forest; selective logging and other canopy damage is much more pervasive than once believed. Deforestation causes collateral damage to the surrounding forests - through enhanced drying of the forest floor, increased frequency of fires, and lowered productivity. The loss of healthy forests can degrade key ecosystem services, such as carbon storage in biomass and soils, the regulation of water balance and river flow, the modulation of regional climate patterns, and the amelioration of infectious diseases. We review these newly revealed changes in the Amazon rainforests and the ecosystem services that they provide.

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Frontiers in Ecology and the Environment
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Holly Gibbs
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The article asserts that globalization has made the world a more dangerous and less orderly place. The authors argue that since the emergence and expansion of globalization in the 1990s, the world has experienced more problems such as increasing terrorist activity, widening gaps between religious and cultural ideologies, unstable global financial systems, expanding dangers of pandemic disease, and the growing threat of global climate change.

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Foreign Policy
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Most research on the agricultural impacts of climate change has focused on the major annual crops, yet perennial cropping systems are less adaptable and thus potentially more susceptible to damage. In regions where perennial crops are economically and culturally important, improved assessments of yield responses to future climate are needed to prioritize adaptation strategies. These impact assessments, in turn, must rely on climate and crop models that contain often poorly defined uncertainties. We evaluated the impact of climate change on six major perennial crops in California: wine grapes, almonds, table grapes, oranges, walnuts, and avocados. Outputs from multiple climate models were used to evaluate climate uncertainty, while multiple statistical crop models, derived by resampling historical databases, were used to address crop response uncertainties. We find that, despite these uncertainties, climate change in California is very likely to put downward pressure on yields of almonds, walnuts, avocados, and table grapes by 2050. Without CO2 fertilization or adaptation measures, projected losses range from 0 to >40% depending on the crop and the trajectory of climate change. Climate change uncertainty generally had a larger impact on projections than crop model uncertainty, although the latter was substantial for several crops. Opportunities for expansion into cooler regions were identified, but this adaptation would require substantial investments and may be limited by non-climatic constraints. Given the long time scales for growth and production of orchards and vineyards (30 years), climate change should be an important factor in selecting perennial varieties and deciding whether and where perennials should be planted.

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Agricultural and Forest Meteorology
Authors
David Lobell
Christopher B. Field
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