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WRI established its U.S. office in 1982. We work to improve water quality, increase awareness of local climate change impacts, and identify cost-effective emissions-reduction opportunities in the United States. Learn more about our work in the United States.

Jonathan Moch

ChinaFAQs Project Specialist

Jonathan Moch is the Project Specialist for ChinaFAQs within WRI's Climate and Energy Program.

Sean DeWitt

Director, Global Restoration Initiative

Sean is the Director for the Global Restoration Initiative at World Resources Institute (WRI).

Caitlin O’Donnell

Program Coordinator / Research Analyst

Cait is the Program Coordinator for the Access Team in WRI’s Institutions and Governance (IGP) Program. She manages the program’s grants, finances, communications, and outreach.

Sorina Seeley

Project Coordinator

Sorina is the Project Coordinator for the Electricity Governance Initiative (EGI) in WRI’s Institutions and Governance Program.

U.S. natural gas production is booming. According to the Energy Information Administration (EIA), production grew by 23 percent from 2007 to 2012. Now—with production projected to continue growing in the decades ahead—U.S. lawmakers and companies are considering exporting this resource internationally. But what are the climate implications of doing so?

This is a topic I sought to address in my testimony yesterday before the U.S. House of Representatives Energy and Commerce Subcommittee on Energy and Power. The hearing, “U.S. Energy Abundance: Exports and the Changing Global Energy Landscape,” examined both the opportunities and risks presented by exporting liquefied natural gas (LNG). I sought to emphasize a number of points that are often overlooked in this discussion; in particular, fugitive methane emissions and cost-effective options for reducing them.

Environmental Impacts of Natural Gas Production

While burning natural gas releases half the amount of carbon dioxide as coal, producing the fuel comes with considerable environmental risks (see: here, here, and here). We’re already seeing these risks play out domestically. In addition to habitat disruption and impacts on local air and water quality, one of the most significant implications of natural gas production is fugitive methane emissions.

The U.S. Environmental Protection Agency (EPA) recently released its annual greenhouse gas (GHG) inventory report. Using new data and information, the EPA lowered its estimate of fugitive methane emissions from natural gas development by 33 percent, from 10.3 million metric tons (MMT) in 2010 to 6.9 MMT in 2011. While such a reduction, if confirmed by measurement data, would undeniably be a welcome development, it doesn’t mean that the problem is solved.

There are still many reasons why reducing fugitive methane is important. Even better, WRI’s recent analysis finds that we have the technologies and policy frameworks to do so cost effectively.

Here are five big reasons we should care about fugitive methane emissions:

1) Emissions Are Still Too High.

Methane is a potent greenhouse gas and a key driver of global warming. Methane is 25 times stronger than carbon dioxide over a 100-year time period and 72 times stronger over a 20-year period. In fact, 6.9 MMt of methane is equivalent in impact to 172 MMt of CO2 over a 100-year time horizon. That’s greater than all the direct and indirect GHG emissions from iron and steel, cement, and aluminum manufacturing combined. Reducing methane emissions is an essential step toward reducing U.S. greenhouse gas emissions and slowing the rate of global warming.

A new report from CERES draws a connection between water risk and hydraulic fracturing in the United States. The report adds an important dimension to the conversation about how energy use and water stress will play out in the years ahead.

The report, Hydraulic Fracturing & Water Stress: Growing Competitive Pressures for Water, brings together Aqueduct’s high-resolution water stress maps with data on the location and water use of U.S. shale oil and gas wells. The complete map (see below) shows where potentially water-intense hydraulic fracturing is happening in water-stressed areas.

The results of the study are eye-opening: Almost half of the more than 25,000 oil and gas wells mapped by Ceres are in water basins with either high or extremely high water stress.


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