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%people1%, CESP Senior Fellow and Director of the Program on Energy and Sustainable Development is quoted in New York Times, September 6, 2003 article.

The United States needs natural gas. Developing countries many thousands of miles away are willing to supply it. This sleepy beachfront town and other communities along the Gulf of Mexico are likely to become the links between producers and consumers.

Altogether, energy companies are planning to spend more than $100 billion in the next decade to bring gas from developing countries to rich nations, according to PFC Energy, a Washington consulting firm. The only way to do it is to supercool the gas so that it condenses into a liquid, which is then compact enough to load onto tankers and send across oceans.

For years, this process was too costly to compete with relatively cheap domestic supplies of natural gas and with imports from Canada. But those supplies are tightening just as the demand for clean-burning gas is soaring. That has led to the most severe gas shortage in the last 25 years and caused domestic gas prices to double this year.

The gap between domestic supply and total demand is forecast to grow significantly over the next 20 years. That has made liquefied natural gas competitive, if only companies can find places that are willing to accept having L.N.G. terminals built nearby. "We've entered the gas age, and there's no turning back if we want a firm supply of a strategically crucial fuel," said Michael S. Smith, an investor who controls Freeport LNG, a Houston company that plans to build a receiving terminal on Quintana Island.

Mr. Smith and his partners, Cheniere Energy and Contango Oil and Gas, both of Houston, expect to begin construction of the terminal early next year on this tiny island about 70 miles south of Houston. The $400 million operation will be able to receive ships full of liquefied natural gas, warming the gas and piping it to a nearby plant owned by the Dow Chemical Company.

Quintana Island's attraction lies not only in its proximity to a plant that uses natural gas as a raw material but also in its location near the center of the nation's energy industry. That, it is hoped, will make political resistance to such projects tepid compared with the safety, aesthetic and environmental concerns in places like Northern California and Massachusetts.

Despite such concerns and worries that large, potentially explosive gas terminals could become terrorist targets, energy companies are eager to import liquefied natural gas. It is a shift that could avoid gas shortages forecast for the future, but could also increase the nation's dependence on foreign energy supplies.

"Just as we're debating the need to diversify our oil supplies, we're faced with an array of challenges to secure reliable and politically stable sources of gas," said David G. Victor, director of the Program on Energy and Sustainable Development at Stanford University.

More than a dozen projects like the one here are seeking approval from regulators in North America, including several on the Gulf Coast and in the northern Mexican state of Baja California.

The United States is already the world's largest natural gas producer, and domestic production is expected to increase to 28.5 trillion cubic feet in 2020 from 19.1 trillion cubic feet in 2000, according to the Energy Information Administration. Still, demand is expected to far outstrip production, growing to 33.8 trillion cubic feet by 2020 from 22.8 trillion cubic feet in 2000.

The gas to close that gap - more than five trillion cubic feet, a 40 percent increase in 20 years - will have to come largely from outside the United States.

Almost all of America's imported natural gas currently comes by pipeline from Canada. But a growing market for gas within Canada and rapidly depleting Canadian wells are expected to weaken that country's ability to increase exports. Mexico, though believed to have large untapped gas reserves, is mired in nationalist debate over making it easier for foreign financiers and companies to explore for gas.

As a result, Mexico, a power in crude oil, is a growing importer of natural gas - and an attractive base for liquefied natural gas receiving terminals, which cost as much as $700 million to build. The Organization for Economic Cooperation and Development recently forecast that the percentage of North America's gas from imports would climb to 26 percent by 2030 from just 1 percent today.

Those imports will come mostly from developing nations like Equatorial Guinea, a former Spanish colony in West Africa where Marathon Oil of Houston plans to build an L.N.G. plant able to serve gas fields throughout the Gulf of Guinea.

Ambitious ventures are also under way in other West African countries, including Angola and Nigeria, where energy companies were recently burning gas escaping from oil drilling operations because there was no ready market for it. In the Middle East, small countries like Oman, a sultanate on the Strait of Hormuz, and Qatar, are emerging as important gas powers.

In South America, Trinidad and Tobago has become an early leader in exporting liquefied natural gas, although companies in Bolivia and Peru have had difficulties advancing efforts to export L.N.G. to California. Producers in Indonesia, Malaysia and Russia could step in to supply the West Coast, pushing the Andean countries to the margins of the business.

In some ways, the scramble for natural gas projects resembles the heady early days of the oil industry a century ago. Then, British, Dutch and American investors raced around the world to stake out interests in remote oil fields in the Middle East, Central Asia and the archipelagoes of the Java Sea.

Some regions are considered more promising than others. Industry executives point out that just three countries  Iran, Qatar and Russia  hold more than half of the world's natural gas reserves, inevitably focusing attention on the delicate interplay between politics and commerce in these places.

Russia, with the largest proven reserves, plans to start exporting liquefied natural gas in 2007 with deliveries to Japan. Iran, while off limits to American companies because of trade restrictions by the United States, has attracted Japanese, French, British, Indian and South Korean concerns interested in mounting gas ventures.

There are important differences, however, between past oil booms and the current interest in natural gas. For one thing, studies show the world will be swimming in natural gas supplies while oil reserves are expected to dwindle in the decades ahead. Just one area in Qatar, a monarchy near Saudi Arabia with fewer than a million people, is thought to have enough gas to supply the United States for 40 years, according to a study by Deutsche Bank.

The natural gas industry has to overcome several obstacles before evolving into a vibrant global market. Even with ample supplies there is no market for trading liquefied natural gas, as there is for crude oil. Instead, producers and customers sign long-term contracts, sometimes resulting in significant price differences from one year to the next or from one country to another.

One reason the natural gas market has remained fragmented is because the fuel is difficult and expensive to extract and transport. But these costs are declining, adding to the appeal of gas projects. Lord Browne, the chief executive of BP, said the cost of developing gas liquefaction plants had halved since the 1980's, while shipping costs had also fallen.

Shipbuilders are seeking to meet demand for tankers, with the global gas fleet expected to grow to 193 ships by 2006 from 136 in 2002, according to LNG One World, a gas- shipping information service operated by Drewry International of Britain and Nissho Iwai of Japan.

Natural gas is still not considered as crucial as oil for overall energy security since oil's main use is for transportation and there is no short-term alternative. Natural gas has a variety of important industrial uses, like serving as a raw material for fertilizer and generating electricity.

Still, the growth in demand for liquefied natural gas in the United States is expected to outstrip other parts of the world. It is likely to grow 35 percent in the next five years, compared with 20 percent in other North Atlantic countries and 12 percent worldwide, according to Deutsche Bank. Hence the rush to proceed with projects that supply liquefied natural gas to the United States.

"The world could be consuming more gas than oil by 2025," Philip Watts, the chairman of the Royal Dutch/Shell Group, the large British-Dutch energy company, said in a recent address to industry executives in Tokyo. "We must be prepared for growing geopolitical turbulence and volatility in an increasingly interdependent world."

The United States has only five terminals capable of receiving L.N.G., including one in Puerto Rico. Almost 20 are on the drawing board, but opposition to the terminals has already prevented the start of work on several of them. Earlier this year, for instance, Shell and Bechtel Enterprises shelved a plan to build a terminal about 30 miles north of San Francisco because of stiff public opposition.

California remains perhaps the most difficult place in the country to gain approval for gas-receiving terminals. This has encouraged imaginative proposals like one last month from BHP Billiton, Australia's largest energy company, for a $600 million floating terminal 20 miles off the coast of Oxnard in the southern part of the state. It remains to be seen whether any of the California projects will be built.

An air of resignation hangs over even the critics of the plan to build the terminal on Quintana, which is scheduled to start operating by 2007. Officials from Freeport LNG have told residents that they expect to make more than $1 million a year in tax payments to the city, a substantial sum for a community of 40 homes that is the smallest municipality in Texas.

At the Jetties, a restaurant on the island's edge overlooking the brown water of the Gulf of Mexico, the walls are plastered with warnings of the perceived dangers of receiving tankers full of potentially combustible gas from far-flung parts of the world. But the restaurant's employees seem to believe that the terminal will be built, inevitably changing the island's easygoing atmosphere.

"People come out here to drink beer on the beach and look at the birds and the gulf," said Dana Difatta, a cook at the restaurant. "Imagine what they'll think when they're staring at some huge vats holding natural gas. Will they be horrified or relieved?"

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The vulnerability framework of the Research and Assessment Systems for Sustainability Program explicitly recognizes the coupled human-environment system and accounts for interactions in the coupling affecting the system's responses to hazards and its vulnerability. This paper illustrates the usefulness of the vulnerability framework through three case studies: the tropical southern Yucatan, the arid Yaqui Valley of northwest Mexico, and the pan-Arctic. Together, these examples illustrate the role of external forces in reshaping the systems in question and their vulnerability to environmental hazards, as well as the different capacities of stakeholders, based on their access to social and biophysical capital, to respond to the changes and hazards. The framework proves useful in directing attention to the interacting parts of the coupled system and helps identify gaps in information and understanding relevant to reducing vulnerability in the systems as a whole.

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Proceedings of the National Academy of Sciences
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Pamela Matson
Rosamond L. Naylor
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Executive Summary

 

The purpose of this paper is to present a general framework for electricity market design in Latin American Countries (LACs) that addresses the current problems facing electricity supply industries (ESIs) in this region. The major issue addressed is what market rules, market structures, and legal and regulatory institutions are necessary to establish a competitive wholesale market that provides the maximum possible benefits to consumers consistent with the long-term financial viability of the ESI.

The paper first presents a theoretical foundation for analyzing the electricity market design problem. A generic principal-agent model is presented and its applicability to the electricity market design problem explained. It is then applied to illustrate the incentives for firm behavior under regulation versus market environments. The impact of government versus private ownership on firm behavior in both market and regulated environments is also addressed using this model. This discussion is used to guide our choices for the important lessons for electricity market design in developed countries and LACs.  Using the experiences from ESI reform in developed countries, the paper presents five essential features of a successful wholesale electricity market. The first is the need for a sufficient number of independent suppliers for a competitive market to be possible. Merely declaring the market open to competition will not result in new entry unless no single supplier is able to dominate the market. Second is a forward market for electricity where privately-owned firms are able to sell long-term commitments to supply lectricity. This report argues that the conventional wisdom of establishing a competitive spot market first leading to a competitive forward market is an extremely expensive process in developed countries and is prohibitively expensive in developing countries. Third is the need for the active involvement of as many consumers of electricity as is economically feasible in the operation of the wholesale market.  This involvement should occur both in the long-term and short-term market. In the short-term market, there must be a number of buyers willing to alter their consumption of electricity in response to short-term price signals. Fourth is the importance of a transmission network to facilitate commerce, meaning that the transmission network must have sufficient capacity so that all suppliers face significant competition. This implies a dramatically different approach to determining the quantity and magnitude of transmission network expansions in a market regime.  The final lesson is the need to establish a credible regulatory mechanism as early as possible in the restructuring process. An important lesson from developed countries around the world is that the initial market design will have flaws. This implies the need for ongoing market monitoring to correct these flaws before they develop into disasters.

The paper then takes on the issue of the specific challenges to LAC restructuring. Rather than focus on the details of specific markets, the paper instead identifies a number of problems common to LACs and provides recommended solutions to each of these problems. A major theme of this section is a warning that short-term solutions to market design flaws can have longterm market efficiency costs. The paper identifies seven major challenges to Latin American ESI restructuring. The first is related to the problem of introducing wholesale markets in systems dominated by hydroelectric capacity. This section also deals with the related issue of using cheap hydroelectric power as a way to keep electricity prices low and the risk of electricity shortages high. The second issue is concerned with the difficulties of establishing an active forward market for electricity in LACs. The third relates to the LAC-specific challenges associated with establishing an independent and regulatory body. The fourth addresses the advisability of cost-based versus bid-based dispatch of generation units in LAC wholesale markets. The fifth is how to regulate the default provider retail electricity price in LACs. Sixth concerns the advisability of capacity payments mechanism for ensuring energy adequacy in markets where demand is expected to grow rapidly. The final issue is the role for government versus private ownership in LACs.

The report then discusses specific market design challenges in five LACs. These countries are Brazil, Chile, Colombia, Honduras, and Mexico. A number of these challenges are specific examples of the general challenges discussed earlier in the paper, whereas others are unique to the geography, natural resource base or legal environment in the country.

The report closes with a proposed market design that should serve as a baseline market design for all LACs. Deviations from this basic design could be substantial depending on initial conditions in the industry and the country, but the ideal behind proposing this design is to have a useful starting point for all LAC restructuring processes.

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Stanford University, Department of Economics
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Frank Wolak

This conference is being held at the early stages in a cluster of related studies on the political economy of electric power systems in developing countries. The event has been timed to allow the presentation of the first drafts of the overall framework as well as individual case studies-to be critiqued and counseled. The introductory overview provides a framework for thinking about the "political economy" of reform-the legal, political and institutional issues that largely determine the organization of electric power systems and explain the outcomes of different attempts at reform. The study is expected to be finalized by summer 2003.

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School of International Relations and Pacific Studies
UC San Diego
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Professor at the School of International Relations and Pacific Studies and Director of the School’s new Laboratory on International Law and Regulation
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David G. Victor Associate Professor Moderator Program on Energy and Sustainable Development

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Lewis Talbot and Nadine Hearn Shelton Professor of International Legal Studies, Emeritus
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An expert in international law and legal institutions, Thomas C. Heller has focused his research on the rule of law, international climate control, global energy use, and the interaction of government and nongovernmental organizations in establishing legal structures in the developing world. He has created innovative courses on the role of law in transitional and developing economies, as well as the comparative study of law in developed economies. He co-directs the law school’s Rule of Law Program, as well as the Stanford Program in International Law. Professor Heller has been a visiting professor at the European University Institute, Catholic University of Louvain, and Hong Kong University, and has served as the deputy director of the Freeman Spogli Institute for International Studies at Stanford University, where he is now a senior fellow.

Professor Heller is also a senior fellow (by courtesy) at the Woods Institute for the Environment. Before joining the Stanford Law School faculty in 1979, he was a professor of law at the University of Wisconsin Law School and an attorney-advisor to the governments of Chile and Colombia.

FSI Senior Fellow and Woods Institute Senior Fellow by courtesy
Thomas C. Heller Professor Moderator Stanford Law School

Program on Energy and Sustainable Development
Center for Environmental Science and Policy
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Stanford, CA 94305

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J.S.D.

Dr. Tjiong joined PESD in September 2002. His work at PESD concentrates in the realm of electric power market reform. Since 1999, Dr. Tjiong has been a Research Associate with the Max-Planck-Projectgroup, Common Goods: Law, Politics, and Economics in Bonn, Germany. Previously, he served as Consultant to the Consumer Policy Committee for the OECD in Paris, France. Dr. Tjiong holds a J.S.D. from Stanford University School of Law and a J.S.M. from the Stanford School of Law Program in International Legal Studies. He also attended Erasmus University Rotterdam.

Postdoctoral Scholar (2002-2003)
Henri Tjiong Fellow Moderator Program on Energy and Sustainable Development
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Intestinal-type gastric adenocarcinomas usually are preceded by chronic atrophic gastritis. Studies of gastric cancer prevention often rely on identification of this condition. In a clinical trial, we sought to determine the best serological screening method for chronic atrophic gastritis and compared our findings to the published literature. Test characteristics of potential screening tests (antibodies to Helicobacter pyloni or CagA, elevated gastrin, low pepsinogen, increased age) alone or in combination were examined among consecutive subjects enrolled in a study of H. pylori and preneoplastic gastric lesions in Chiapas, Mexico; 70% had chronic atrophic gastritis. English-language articles concerning screening for chronic atrophic gastritis were also reviewed. Sensitivity for chronic atrophic gastritis was highest for antibodies to H. pylori (92%) or CagA, or gastrin levels >25 ng/l (both 83%). Specificity, however, was low for these tests (18, 41, and 22%, respectively). Pepsinogen levels were highly specific but insensitive markers of chronic atrophic gastritis (for pepsinogen I 25 microg/l, sensitivity was 6% and specificity was 100%; for pepsinogen I:pepsinogen II ratio 2.5, sensitivity was 14% and specificity was 96%). Combinations of markers did not improve test characteristics. Screening test characteristics from the literature varied widely and did not consistently identify a good screening strategy. In this study, CagA antibodies alone had the best combination of test characteristics for chronic atrophic gastritis screening. However, no screening test was both highly sensitive and highly specific for chronic atrophic gastritis.

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Cancer Epidemiology Biomarkers & Prevention
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Julie Parsonnet
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Nitrate leaching from agricultural soils can represent a substantial loss of fertilizer nitrogen (N), but a large variation in losses has been reported. We report N leaching losses under four N fertilizer treatments and two farmer's fields in the Yaqui Valley, Mexico. In these irrigated wheat systems, farmers typically apply 250 kg N as anhydrous ammonia (knifed in) or urea (broadcast), with 75% applied directly before planting and 25% at the time of the first post-planting irrigation. Over two wheat seasons, we compared typical farmer's practices to alternatives that applied less N and more closely timed fertilizer application to plant demand. Field lysimeter measurements and predictions from a water transport simulation model (called NLOSS) were used to determine the amount of N leached over the season. Approximately 5 and 2% of the applied N leached below the root zone with the typical farmer's practice in 1995-96 and 1997-98, respectively. The alternative treatments reduced N leaching losses by 60 to 95% while producing comparable economic returns to the farmers. Leaching losses from the two farmer's fields were substantially higher (about 14 and 26% of the applied N). Our results indicate that the typical farmer's practice leads to relatively high N leaching losses, and that alternative practices synchronizing fertilizer application with crop demand can substantially reduce these losses.

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Nutrient Cyling in Agroecosystems
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Pamela Matson
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