International Development

FSI researchers consider international development from a variety of angles. They analyze ideas such as how public action and good governance are cornerstones of economic prosperity in Mexico and how investments in high school education will improve China’s economy.

They are looking at novel technological interventions to improve rural livelihoods, like the development implications of solar power-generated crop growing in Northern Benin.

FSI academics also assess which political processes yield better access to public services, particularly in developing countries. With a focus on health care, researchers have studied the political incentives to embrace UNICEF’s child survival efforts and how a well-run anti-alcohol policy in Russia affected mortality rates.

FSI’s work on international development also includes training the next generation of leaders through pre- and post-doctoral fellowships as well as the Draper Hills Summer Fellows Program.

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In a Jan. 12 press conference, Stanford President John Hennessy announced a new interdisciplinary initiative on energy issues and $100 million in new spending for energy research. The initiative will be housed at the Precourt Institute for Energy Efficiency and will draw upon intellectual resources from the entire university, including FSI's Program on Energy and Sustainable Development (PESD), which has been studying the production and consumption of energy and its effects on sustainable development since 2001.

One of the issues Hennessy singled out - finding an alternative to coal that is environmentally friendly yet cheap enough to sell to China - is at the core of PESD's Global Coal Markets platform, one of the program's four active research platforms. Richard K. Morse and others are tracking power generation in China, India, and the U.S. and finding that coal use is on the rise but the whole picture is complex due to the current world economic crisis. On the issue of climate change, David G. Victor recently proposed a new policy framework, "climate accession deals," for more successfully engaging developing nations in a post-Kyoto world.

On Feb. 12, PESD will host a public conference titled "Public Forum: How Will Global Warming Affect the World's Fuel Markets?", as part of the program's winter seminar on coal. Peter Hughes, director of Arthur D. Little's Global Energy & Utilities Division, will talk about whether natural gas is the "default climate change option." Hughes' presentation will be followed by a panel discussion with FSI Director Coit D. Blacker, Stu Dalton from EPRI, and PESD Director David Victor.

PESD research findings are regularly featured in the New York Times, energy blogs, Newsweek, scholarly journals, and in printed book publications. The relevancy of its research findings derives from its interdisciplinary look at energy through law, political science, and economics.

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David G. Victor
Varun Rai
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Coal is looking like the energy winner in the current economic crisis, David Victor and Varun Rai say in Newsweek.

"2009 was shaping up to be the year the world got its environmental act together. Now it's looking like the global environment may be one of the biggest losers in the current financial crisis."

Saving the planet was never going to be easy. Avoiding the most catastrophic effects of climate changes will require cutting carbon emissions by 50 to 80 percent over the next four decades, scientists say. After years of deadlock, 2009 was shaping up to be the year the world got its environmental act together. Now it's looking like the global environment may be one of the biggest losers in the current financial crisis.

Lower prices for oil-which some analysts predict will hit $25 a barrel-is bad news for investors in green energy. But the big winner is likely to be dirty coal. It already accounts for about 40 percent of the world's emissions of carbon dioxide, the leading cause of global warming. The fuel is plentiful, and its price has fallen about one third since last summer's peak to $80 per ton. In China, the world's largest coal burner, prices have fallen by half and are likely to plummet further. All the top emitters of greenhouse gases depend mainly on coal for electric power. Dirty coal is now getting cheaper relative to other fossil fuels, such as natural gas and oil.

New "clean coal" plants would capture carbon and store it away underground, or at least to extract as much energy as possible for each kilogram of carbon pollution. The problem is that clean-coal plants are a lot more expensive than conventional "dirty coal" technology, and the financial crisis is obliterating schemes that would have paid the extra cost. Before the crisis, a team at Stanford University found that the world was investing only about 1 percent of what's needed on advanced coal technologies to meet carbon-emissions targets. Now a spate of canceled projects darkens the picture. There are lots of ways, in theory, to build low-emission power plants. One option is to turn coal into a gas and burn it in an ultra-efficient turbine. This "gasification" approach is not only highly efficient but it also produces nearly all of its carbon dioxide pollution in a concentrated stream that could be pumped safely underground, where it won't warm the atmosphere. So far, few investors are building plants that offer a model for how the technology would be deployed at scale. Before the crisis, a few power companies tried to build just the efficient gasification units, which are cheaper than the whole integrated plant, but most of those plans have evaporated in the last month. Only one large plant is still going forward in the United States, and that one won't include carbon storage.

Another route is to burn coal in pure oxygen without gasification, which also yields pure waste that can be pumped underground. A 30-megawatt demonstration plant is operating in Germany. A consortium of utilities is also testing a technology to remove CO2 from plant emissions, but no investor is willing yet to build a full-scale project. These options could double or triple the cost of a power plant.

A 300-megawatt plant that cut emissions nearly 90 percent would cost $1 billion to $2.5 billion, and the United States would need about 1,000 such plants to match its current coal-power output. China would need another 1,000. Since the 1960s, when U.S. utilities last made major investments in new plants, their average bond rating has fallen from AA to BBB, and now the credit crisis has made it all but impossible to finance any new plant, much less an expensive, clean one. The European Union has no money for its plan to build a dozen "zero-emission plants." The price of CO2 in Europe is too low to attract investors to this technology. The latest scheme to fix the problem—a giveaway of emission credits to investors who build clean-coal plants—is falling victim to the financial crisis, which has halved the price of emission permits, and thus the value of emission credits. The U.K. has been holding a contest for public funds to jump-start clean-coal technology. In November 2008 BP pulled out of the competition, citing its inability to form a successful consortium. Early in 2008 the U.S. government killed its investment in advanced coal due to exploding costs.

Environmentalists, in their opposition to coal of any kind, may provide the coup de grâce. Greenpeace, riffing on James Bond, is hawking a "Coalfinger" spoof on the Internet and is deep in a campaign to stop all new coal plants. U.S. environmental groups recently announced a campaign to expose clean coal as a chimera. Thanks to such efforts, in the United States it's now nearly impossible to build any kind of coal plant, including tests of clean technology. As the world economy recovers, nations will once again turn to their old stalwart, dirty coal.

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The world is grappling with how to restructure its economies around lower carbon fuel sources. But the set of possible alternatives, especially concerning coal and natural gas, thrusts us into a complicated nexus of environmental and political outcomes. If we readjust our fuel consumption to emit less CO2 will that expose our economies to dangerous political risks lurking in the global fuel markets? Is coal the answer to our energy security worries? Join the Program on Energy and Sustainable Development as our panel of energy and political experts debate some of the hardest questions posed by today's global energy and geopolitical landscape.

» PESD Winter Coal Seminar 2009 (password protected)

Bechtel Conference Center

Peter Hughes
Peter Hughes Director for Global Energy and Utilities
Director for Global Energy and Utilities Keynote Speaker
Keynote Speaker Arthur D. Little
Arthur D. Little
Stu Dalton
Stu Dalton Panelist
Panelist Electric Power Research Institute
Chip Blacker Director Panelist FSI

School of International Relations and Pacific Studies
UC San Diego
San Diego, CA

(858) 534-3254
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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 Director Moderator PESD
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Abstract
The federal Endangered Species Act (ESA) and California's Endangered Species Act (CESA) aim to protect species from extinction by restricting property development on the habitats of imperiled species. Proponents of these laws argue that the development restrictions are necessary in order to protect valued species, whereas opponents argue that the burden is too restrictive. The controversy surrounding species protection is especially intense in California, where many species are subject to protection and where developmental pressures are particularly acute.

This paper provides estimates of the impacts on housing supply in California due to protection of animal species provided under the ESA and CESA. Specifically, the paper estimates the effect on housing development in California census tracts that contain protected endangered animals. The main empirical complication in addressing this research question is that census tracts that contain one or more protected species are likely different from census tracts that do not contain such species. Further, these differences could also contribute to differences in housing supply, therefore biasing the estimated effects. We attempt to address this concern using a unique research design and data set. We find that a census tract that has an endangered animal listed by the federal or state government in the 1990s does not have a subsequent reduction in the development of housing units. This suggests that species protection in California does not impede housing supply.

Reuben W. Hills Conference Room

Ted Gayer Professor of Public Policy Speaker Georgetown University
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Electricity transmission pricing and transmission grid expansion have received increasing regulatory and analytical attention in recent years. There are two disparate approaches to transmission investment: one employs the theory based on long-run financial rights (LTFTR) to transmission (merchant approach), while the other is based on the incentive-regulation hypothesis (regulatory approach). The transmission firm (Transco) is regulated through benchmark or price regulation to provide long-term investment incentives. In this presentation I consider the elements that could combine the merchant and regulatory approaches in a setting with price-taking electricity generators and loads. A new price-cap incentive mechanism for electricity transmission expansion is proposed based upon redefining transmission output in terms of point-to-point transactions. The mechanism applies the incentive regulatory logic of rebalancing the variable and fixed parts of a two-part tariff to promote efficient, long-term expansion.

Reuben W. Hills Conference Room

Juan Rosellón Professor of Economics Speaker Centro de Investigación y Docencia Económicas, Mexico
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David G. Victor
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David G. Victor comments on the current flattening of investment in green technology due to market forces. What is emerging, he says, is a shift towards a green economy of scale that is based on government intervention such as regulation, mandates, and subsidies. Such mechanisms are more reliable in the long run because a large part of green's success will need to be based on larger scale industrial complexes such as off-shore wind parks and electrical grids capable of storing and delivering intermittent power.

Serious greenery is about efficiency--not only in the use of energy but also labor and capital.

(Excerpt) The winds of economic destruction are flattening not just retirement accounts but also naive visions for a green economy. Public support for costly new green mandates is weakening, and government budgets to fund them are bleeding red ink. Plummeting prices of oil and other fossil fuels have made it harder for green to compete in the marketplace. IPOs of firms working on "clean tech" green energy that have fueled fantasies of the coming energy revolution have crashed to a halt. In all the bad economic news, a new face of green is coming into focus. Whereas the old view of green tech was based on many small, decentralized sources of power and a green economy that harnessed the power of the marketplace, the new version will rely more heavily on regulation and subsidies. It will also embrace the wisdom, true in most of the energy business, that bigger is better for weathering economic storms.

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Effective strategies for managing the dangers of global climate change are proving very difficult to design and implement. They require governments to undertake a portfolio of efforts that are politically challenging because they require large expenditures today for uncertain benefits that accrue far into the future. That portfolio includes tasks such as putting a price on carbon, fixing the tendency for firms to under-invest in the public good of new technologies and knowledge that will be needed for achieving cost-effective and deep cuts in emissions; and preparing for a changing climate through investments in adaptation and climate engineering. Many of those efforts require international coordination that has proven especially difficult to mobilize and sustain because international institutions are usually weak and thus unable to force collective action...."

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The Harvard Project on International Climate Agreements
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David G. Victor
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Carbon capture and storage (CCS) is among the technologies with greatest potential leverage to combat climate change. According to the PRISM analysis, a technology assessment performed by the Electric Power Research Institute (EPRI), wide deployment of CCS after 2020 in the US power sector alone could reduce emissions by approximately 350 million tonnes of CO2 per year (Mt CO2/yr) by 2030, a conclusion echoed by the McKinsey U.S. Mid-range Greenhouse Gas Abatement Curve 2030. But building CCS into such a formidable climate change mitigation “wedge” will require more than technological feasibility; it will also require the development of policies and business models that can enable wide adoption. Such business models, and the regulatory environments to support them, have as yet been largely undemonstrated. This, among other factors, has caused the gap between the technological potential and the actual pace of CCS development to remain large.

The purpose of the present work is to quantify actual progress in developing carbon storage projects (here defined as any projects that store carbon underground at any stage of their operation or development, for example through injection into oil fields for enhanced recovery or in saline aquifers or other geological formations). In this way, the real development ramp may be compared in scale and timing against the perceived need for and potential of the technology. Some very useful lists of carbon storage projects already exist – see, for example, the IPCC CCS database, the JP Morgan CCS project list, the MIT CCS database, and the IEA list. We seek to maintain an up-to-date database of all publicly-announced current and planned projects from which we can project a trajectory of carbon stored underground as a function of time. To do this, we estimate for each project the probability of completion as well as the potential volume of CO2 that can be stored as of a given year.

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Program on Energy and Sustainable Development Working Paper #76
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Varun Rai
Ngai-Chi Chung
Mark C. Thurber
David G. Victor
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Carbon Capture and Storage (CCS) technologies form a key piece of virtually all roadmaps for global carbon dioxide (CO2) emissions reductions-many studies predict that CCS will contribute 20-50% of the necessary CO2 emissions reductions by 2100. To assess actual progress of CCS projects towards fulfilling these expectations, the PESD Carbon Storage Project Database tracks all publicly announced CCS projects worldwide.

Through careful examination of numerous information sources, we grouped all CCS projects into three categories according to the probability of their completion: currently operating (100% likelihood), possible (estimated 50-90% likelihood), and speculative (estimated 0-50% likelihood).

We find that even under the aggressive scenario that all "possible" projects are indeed realized, this will result in about 80 Mt CO2/yr of reductions worldwide by 2025, far short of the 350 Mt CO2/yr of reductions that are projected as technologically feasible using CCS by 2030 in the US alone.

Looking worldwide, then, total carbon storage activity might need to be on the order of 1 billion tonnes CO2/yr just for carbon storage to play a big role as one of a portfolio of technologies deployed so that the overall energy system cuts emissions on a path consistent with 500-550ppm. Our study shows that the actual deployment plans are on track to deliver less than 1% of what's needed.

We've then gone a step further and looked at the design of each carbon storage project in our database. We find that the vast majority of the most likely projects are associated with Enhanced Oil Recovery (EOR), sweetening of natural gas, and the production of synthetic natural gas (SNG). That is, the most interesting niche financially is associated with making more fossil fuels. While that investment pattern is understandable, it has huge implications for carbon storage in the power sector (which is where everyone thinks carbon capture and storage, or "CCS", is very attractive for cutting emissions) for the simple reason that only a tiny fraction of carbon storage investment plans envisions the use of CCS at scale. Our guess is that carbon storage will be developed through niche markets in EOR and SNG and then spread, perhaps, to CCS. But that pathway will be slow to unfold and suggests that visions of large scale near-term CCS will be hard to materialize without much greater investment in developing the technologies.

The second version of the PESD Carbon Storage Project Database, developed by PESD researchers Varun Rai, Ngai-Chi Chung, Mark C. Thurber, and David G. Victor, was released on 12 November 2008. The previous version was released on 30 June 2008.

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