Climate 411

‘Feeding 9 billion’ requires facing up to climate change

This post was co-authored by Kritee, Senior Scientist, International Climate; Richie Ahuja, Regional Director, Asia; and Tal Lee Anderman, Tom Graff Fellow – India Low-Carbon Rural Development

National Geographic’s May cover story, “Feeding 9 billion,” offers valuable insights into how to feed a growing global population while reducing agriculture’s environmental impacts. But it omits some key connections with a critical issue: climate change.

Drought in the U.S. causes withering of corn. (Photo credit: Ben Fertig, IAN, UMCES)

As the Food and Agriculture Organization recently documented in great detail, climate change is likely to fundamentally alter the structure of food systems around the globe. With about 43% of the world’s population employed in agriculture, it’s vital that farmers have the knowledge and tools they need both to adapt to climate change and to help mitigate it.

Author Jonathan Foley, who directs the University of Minnesota’s Institute on the Environment, lays out several steps for “Feeding 9 billion.” Though he starts by acknowledging that agriculture emits “more greenhouse gases than all our cars, trucks, trains, and airplanes combined,” he doesn’t explicitly mention how his plan relates to a changing climate.

The first of his steps – halting conversion of additional forests and grasslands to agriculture – is crucial to stopping climate change, given the vast quantities of greenhouse gases released in these conversions. As the latest Intergovernmental Panel on Climate Change (IPCC) report on mitigation noted, protecting forests and increasing carbon content of the soils can decrease global emissions by as much as 13 gigatons CO2eq/year by 2030 – more than a quarter of current annual global emissions.

Foley also highlights the need to reduce meat consumption, because only a very limited portion of calories consumed by animals yield edible food for humans, and to reduce food waste. According to the IPCC, these consumer-level steps have the potential to decease agricultural emissions by 60% below the current trajectory. While Foley didn’t acknowledge these mitigation potentials, we agree that these are important steps to feeding the world’s population and protecting our environment.

But it’s his steps calling for improving productivity – both by growing more food on existing farms, and by using fertilizer, water and energy more efficiently – where the interactions with climate are more complex and need special attention.

Climate adaptation and resilience in agriculture

Foley rightly points out that to feed the world’s future population, more food needs to grow on existing farms. However, he doesn’t note that some of the effects of climate change – droughts, floods and heat waves in many parts of the world – are already reducing crop yields, and these effects and their consequences are expected to worsen.

The IPCC’s recently published 5th Assessment Report on adaptation concludes that:

  • Climate change is already negatively affecting yields of crops and abundance of fish, and shifting the regions where crops grow and fish live
  • Future changes in climate will increase competitiveness of weeds, making it difficult and more expensive to control them
  • By 2050, changes in temperature and precipitation alone will raise global food prices by as much as 84% above food prices projected without these two climatic factors
  • Major grains like wheat, corn, and rice could see as much as a 40% decrease in yield from a 20C increase in local temperatures. That’s because of the changing rainfall frequency and intensity, unpredictability and irregularity of growing seasons, and higher ozone levels that often accompany high CO­2 levels

To deal with these consequences and ensure food security and livelihoods, adaptation to climate change is essential. Indeed, adopting carefully chosen adaptation and resilience measures could improve crop yields as much as 15-20%. The IPCC recommendations include:

  • Altering planting/harvesting dates to match the shifting growing seasons
  • Using seed varieties that might be more tolerant of changing climatic patterns
  • Better managing water and fertilizer use

A farmer training session, led by EDF’s partner NGO in India (Photo credit: Accion Fraterna)

Achieving high yields requires enabling farmers all over the world to adapt, build and restore the resilience of agricultural ecosystems in the face of continued climate change. Given that many farmers in developed countries have already reached what are currently maximum possible yields, it’s particularly urgent to work with farmers in the developing world.A vast majority of these farmers in developing countries own small-scale farms (less than two acres in size) and have limited resources, and as a result are on the frontline of experiencing the unfolding impacts of climate change. These farmers are already growing the majority of the world’s food – more than 90% of the world’s rice, over 65% of its wheat and 55% of its corn. Notably, as opposed to our recommendations for farmers in the developed countries, some of them might need to increase their fertilizer use to achieve better yields as opposed to decreasing it. Feeding a world of 9 billion thus requires facing the disproportionate effect that climate change has on the 2 billion people who depend on small-scale farms for their livelihood.

Barriers to climate adaptation & mitigation in agriculture

The latest IPCC report also noted that the “nature” of the agriculture sector means:

“There are many barriers to implementation of available mitigation options, including accessibility to … financing, … institutional, ecological, technological development, diffusion and transfer barriers.”

We couldn’t agree more.

Many farmers, especially small scale land-owners in developing parts of the world, lack access to reliable scientific information and technology. In some cases, relevant information has not even been generated.

An Indian peanut farm where EDF is monitoring yield and greenhouse gas emissions. (Photo credit: Richie Ahuja)

For example, small-scale rice farmers in Asia lack access to information enabling them to determine what amounts of water, organic and synthetic fertilizer will optimize yields while also minimizing release of the greenhouse gases methane (which is 84 times more potent than carbon dioxide in the first 20 years after it is released), and nitrous oxide (which is nearly 300 times more potent than carbon dioxide). EDF is working with the Fair Climate Network in India and with Can Tho University and other partners in Vietnam to help generate that information and facilitate its use by farmers.

More generally, agricultural institutions at all levels – international, regional, national and local – need to work closely with farmers to learn and promote evidence-based, locally appropriate agricultural adaptation and mitigation technologies and practices. Farmer access to finance can further help improve the adoption rate of these technologies. Larger investments in farming infrastructure and science from government and private sector also need to be channeled to promote food security through low-carbon farming.

Our food system cannot achieve high yields without building and restoring the resilience of agricultural ecosystems, and the system won’t be sustainable if agriculture doesn’t do its part to mitigate climate change.

To feed 9 billion people, we must overcome barriers to reducing climate change’s effects on agriculture, and agriculture’s effect on climate.

This post first appeared on EDF Talks Global Climate blog

Also posted in International, Plants & Animals, Science / Read 2 Responses

EPA Getting It Right: Supreme Court Affirms EPA’s Common-Sense Approach to Controlling Air Pollution from Power Plants

(This post was co-authored by EDF Attorneys Megan Ceronsky and Graham McCahan)

In a tremendous victory for clean air, the U.S. Supreme Court issued a landmark decision this week upholding the Cross-State Air Pollution Rule.

The high court found the Environmental Protection Agency’s (EPA) rule to be a:

permissible, workable, and equitable interpretation of [the Clean Air Act]. (page 32 of the decision)

The Cross-State Air Pollution Rule is a common-sense and cost-effective framework to protect American communities from the dangerous air pollution that is emitted by coal-fired power plants and then carried by the wind from one state to another.

The Cross-State Air Pollution Rule implements the “good neighbor” provision of the Clean Air Act, which Congress put in place to address this problem.

The “good neighbor” provision requires each state to curb emissions from in-state power plants that interfere with the ability of downwind states to secure clean and safe air for their citizens.

By cutting the emissions that create smog and soot, the Cross-State Air Pollution Rule — when implemented – will avoid up to 34,000 premature deaths, prevent 400,000 asthma attacks, and provide up to $280 billion in health and environmental benefits each year.

Downwind communities will finally have cleaner, safer air to breathe.

This victory is only the latest in a series of court decisions upholding EPA’s actions to address harmful pollution from power plants as firmly grounded in law and science.

Just two weeks ago, for example, the U.S. Court of Appeals for the D.C. Circuit upheld the agency’s landmark standards to cut mercury and other toxic pollutants emitted by power plants.

The Mercury standards will eliminate 90 percent of the mercury emitted by coal-fired power plants. They will avoid 11,000 premature deaths each year while preventing thousands of heart attacks, bronchitis cases, and asthma attacks. They will also save up to $90 billion a year by reducing sick days and trips to emergency rooms.

As we look forward to the proposal of the Carbon Pollution Standards for power plants, we expect more of the same — common-sense, cost-effective standards, built on a solid legal foundation, which will finally curb climate-destabilizing emissions from the largest source of this pollution in our country.

The Supreme Court’s ruling made Tuesday a wonderful day for clean air.

We believe more good air days are yet to come.

Also posted in Clean Air Act, EPA litgation, Health, News / Comments are closed

When it comes to carbon, pay now or pay more later

(This post originally appeared on ensia.com

Economics is largely just organized common sense, and it doesn’t get much more common sense than benefit-cost analysis. Want to decide whether to buy that apple, make that investment or pass that clean air rule? Tally up the benefits. Tally up the costs. If benefits outweigh costs, do it.

Although in many ways climate change is a problem in its own league, the same principles apply. Secretary of State John Kerry recently said, “The costs of inaction are catastrophic,” and they most likely would be. While climate change ought to be a risk management problem — an existential risk management problem on a planetary scale — that realization alone may not always be good enough. Despite the inherent risks and uncertainties, sometimes we need a specific number that we can plug into a benefit-cost analysis.

The U.S. government makes lots of regulatory decisions that have important implications for the climate. Any benefit-cost analysis of these decisions ought to include their climate impact. If a particular decision will lead to more greenhouse gas emissions — building the Keystone XL pipeline, for example — that figure ought to go on the cost side of the ledger. If the decision will lead to fewer greenhouse gas emissions — such as carbon pollution standards for power plants — that figure adds to the benefits side.

Such benefit-cost analyses require a dollar figure for the social cost of carbon pollution. The best we currently have is around $40 for each ton of carbon dioxide emitted, calculated by averaging results from the three of the most prominent and well-established climate-economic models. Uncertainties around the $40 value notwithstanding, putting in $0 is not an option. That, sadly, is what some with clear stakes in the outcome are arguing, however weak the ground they stand on.

In fact, $40 is very likely on the low end of the true cost of CO2. By definition, it only includes what is known and currently quantifiable. It doesn’t include many things we know are linked to a changing climate that aren’t so easily quantified, such as respiratory illness from increased ozone pollution, the costs of oceans turning ever more acidic and impacts on labor productivity from extreme heat. If these were factored in, the $40 figure would certainly be higher.

And the list of what’s missing in the current calculation goes on, as a recent commentary in Nature points out. For example, the models used to calculate the $40 figure are based on costs associated with higher average temperatures rather than costs of increased weather extremes. Taking extreme events seriously in the social cost calculation would increase the $40 figure further still.

We know climate change is and will be costly. How costly exactly is up for discussion, but it’s clear that we should at the very least use the $40 per ton figure in any benefit-cost analysis that involves climate impacts. That’s common sense, too.

Also posted in Clean Power Plan, Economics, Greenhouse Gas Emissions / Read 1 Response

Top takeaways from the latest IPCC report

(This post originally appeared on EDF Voices)

Yesterday, the United Nations’ Intergovernmental Panel on Climate Change (IPCC) released its last report in a three-part series that makes up the fifth assessment report (AR5) on the latest data and research on climate change. The reports have been issued approximately every five years since 1990.

This latest round of reports began in September 2013 with anupdate on the latest science behind climate change (known as Working Group I). Last month, the second report was released and discussed climate change impacts, adaptation, and vulnerability already observed and projected in the future (known as Working Group II).

The new report released yesterday (known as Working Group III) discusses actions to limit the magnitude and rate of climate change, termed mitigation. Over 400 experts from over 50 countries were involved in the development of the report, which was accepted by representatives from 195 nations.

Here are 5 key findings from the new lPCC report:

1. Global emissions of heat-trapping gases from human activities have continued to rise. Emissions are dominated by carbon dioxide (mainly from fossil fuel combustion and industrial processes), which account for 78% of total greenhouse gas emissions from 1970 to 2010 (when other gas emissions are weighted to incorporate warming capability relative to CO2). Greenhouse gas emissions have grown more rapidly between 2000 and 2010 than in previous decades despite a recent push to limit emissions; economic and population growth are driving these increases and continue to outgrow emission savings from energy improvements.

2. Action to limit the magnitude and rate of climate change is needed immediately. Climate conditions are changing rapidly as shown in Working Group I, and the impacts to society and ecosystems are unequivocal, consequential, and increasing as shown in Working Group II. Scenarios to limit warming to 2ºC (3.6ºF) relative to preindustrial levels require drastic cuts in greenhouse gas emissions by mid-century through large-scale changes in energy systems and land-use practices. The longer we delay action, the more expensive it will be.

3. It is key to reduce energy demand, deploy low-carbon technologies, and better conserve and manage forestry and agriculture. There is a range of technological and behavioral options for sustainable climate actions; nearly one thousand scenarios were analyzed in the report.

  • Near-term reductions in energy demand through efficiency enhancements in transport, buildings, and industry sectors are cost-effective, provide flexibility for decarbonizing in the energy supply sector, reduce risks in energy supply, and prevent future lock-in to carbon-intensive infrastructures.
  • Behavioral and lifestyle changes—such as lower energy use in households, buying longer-lasting products, changing dietary habits, and reducing food waste—can considerably lower greenhouse gas emissions alongside technological and structural changes. Further development and implementation of low-carbon energy and/or carbon removal technologies is important.
  • Renewable energy technologies—such as wind, hydro, and solar power—have finally achieved a level of maturity to enable large-scale deployment. However, steep challenges exist, including varying costs, regional circumstances, and the existing background energy system.
  • The best climate actions for forestry include afforestation, sustainable forest management, and reducing deforestation. For agriculture, best practices include cropland and grazing land management, and restoration of organic soil. Sustainable agriculture practices can also promote resilience to climate change impacts.

4. Effective actions will only be achieved by international cooperation. Climate change is a global problem because most heat-trapping gases accumulate over time and mix globally. Therefore, emissions by an individual, community, company, or country, affect the globe. The number of institutions for international cooperation is increasing, and sharing knowledge and technologies with other nations speeds up finding solutions. The issue is complicated by the fact that different countries’ past and future contributions to atmospheric greenhouse gas levels are different, as is their capacities to implement actions to limit climate change and build resilience.

5. Co-benefits strengthen the basis for undertaking climate action. Measures to limit energy demand (efficiency, conservation, and behavioral changes) and renewable alternatives can reduce the risk of energy supply, improve public health and the environment by limiting pollution, induce local and sectoral employment gains, support good business practices, improve security of energy supply at the national level, and eradicate poverty. Adverse side effects, such as reduced revenue from coal and oil exporters, can be to a certain extent avoided by the development of carbon capture and storage technologies.

The IPCC will conclude the AR5 in October 2014 with a final report that summarizes the three-part series, recapping the major findings of the physical science of climate change, its effects on society and ecosystems, and actions to avert catastrophic climate change.

There are many ways YOU can help promote climate actions, such as supporting the U.S. to continue its emission-reducing efforts like the EPA’s power plant standards.

Also posted in Greenhouse Gas Emissions, International, News, Science / Read 1 Response

Toxic mercury pollution limits survive major court challenge

(This post was co-authored by Pamela Campos, Attorney, and Mandy Warner, Climate & Air Policy Specialist)

Some environmental threats are hard to explain. Toxic mercury is not. A dangerous neurotoxin that threatens young children, developing babies, and others, almost everyone reacts viscerally at the idea of ingesting it. And the scientific evidence endorses that instinctive response.

That’s why today’s decision by a federal court to uphold the EPA’s Mercury and Air Toxics rule is cause for celebration. For decades, power plants have been spewing out mercury. It ends up in our lakes and rivers, in fish, and ultimately in our bodies. It’s been closing favorite fishing holes and, more ominously, delaying mental development for our children. Even spiders in the Sonoran desert and trout in Colorado’s highest mountain lakes are affected.

When the EPA finally issued rules under the Clean Air Act to limit mercury pollution, the owners of the dirtiest power plants sued to stop it. Just like with every other major air pollution rule, they claimed it would be unaffordable, ignoring clear evidence that clean air protections are consistently shown to have public health benefits that far exceed the pollution control costs.

So this morning’s decision is a big deal for protecting our health. The court was sweeping in its denial of industry challenges, confirming that EPA’s technical and legal judgment was sound.

While some power companies are investing in lawyers and lobbyists to obstruct these vital health protections, other power companies are investing in clean air solutions. The reality on the ground shows that many power companies are already complying with the rule. Compliance costs fall as new standards are implemented. The health benefits of preventing exposure to toxic pollution are lifelong.

While some opponents claimed it would not be possible to install controls before the rule took effect, but as of the end of 2012, the Energy Information Administration recently reported that 70% of coal-fired capacity already meets the *standards.

Power companies such as American Electric Power, Southern Company and First Energy that fought EPA’s clean air protections claimed the costs would be too high to make pollution reductions. EPA Administrator Lisa Jackson announced the final Mercury and Air Toxics Standards on December 21, 2011 at Children’s Hospital in Washington, D.C. Within months of EPA’s announcement, these same power companies were adjusting their cost estimates downward and touting to investors that the compliance costs with the historic Mercury and Air Toxics Standards were plummeting:

  • On July 20, 2012 American Electric Power CEO Nicholas Akins confirmed that the company’s projected costs have come down nearly 25% from what AEP originally projected. He added, “[W]e expect it to continue to be refined as we go forward”. In other words, costs will come down even further. (Nicholas Akins, American Electric Power Co., Inc. Q2 2012 Earnings Call transcript, July 20, 2012).
  • On May 15, 2012 Southern Company CEO Thomas Fanning stated that the amount the company projects for compliance costs “could be $0.5 billion to $1 billion less, because of the new flexibility that [the company has] found in the final rules of the MATS regulation.” (Thomas Fanning, CEO of Southern Company, Deutsche Bank Clean Tech, Utilities and Power Conference, May 15, 2012).
  • On August 8, 2012, First Energy CEO Anthony Alexander stated, “[W]e have significantly reduced our projected capital investment related to MATS compliance.” (Anthony Alexander, Q2 2012 Earnings Call (transcript) August 8, 2012).

We examined this again and companies like AEP and FirstEnergy continue to lower compliance cost estimates downward from the claims they asserted during the mercury and air toxics rulemaking with AEP lowering its costs estimates by half and FirstEnergy lowering cost estimates by nearly 70 percent.

The Mercury and Air Toxics Standards provide crucial emission reductions of toxic pollutants including mercury, acid gases, sulfur dioxide, and chromium from the single largest source of toxic air pollution in the U.S. – coal-fired power plants. These standards will save thousands of lives every year, prevent heart attacks and asthma attacks, and help protect the hundreds of thousands of babies born in America every year who are exposed to unsafe levels of mercury in the womb. While the costs of compliance have plummeted from the public debate during the development of the standards, these vital health protections for our communities and families are enduring.

The court’s decision today demonstrates that EPA’s rule was carefully developed, and we can all rest more easily tonight knowing that we breathe cleaner air.

*Energy Information Administration, http://www.eia.gov/todayinenergy/detail.cfm?id=15611

Posted in Policy / Read 1 Response

Energy Efficiency and Carbon Pollution Standards: Double Dividends for Climate and Consumers

The U.S. Environmental Protection Agency (EPA) has embarked on a vital effort — accompanied by extensive outreach to states, power companies, environmental organizations, and other stakeholders, including you — to establish the nation’s first limits on carbon pollution from fossil fuel-fired power plants.

EPA was directed to take this critical step for public health and the environment in the President’s Climate Action Plan that was released last summer. Protective and well-designed Carbon Pollution Standards will provide important benefits for all Americans.

Fossil fuel-fired power plants emit 40 percent of the nation’s carbon pollution, as well as significant amounts of mercury, acid gases, and pollutants that contribute to smog and particulates.

That’s why it is critical to get these rules right, and to mobilize common sense solutions proven in red and blue states alike in reducing carbon pollution from the power sector.

Of all the available ways to reduce carbon pollution, one of the most cost-effective and time-tested approaches is to reduce demand for fossil fuel electricity through end-use energy efficiency (EE).

EE measures encompass countless improvements, large and small, in the ways we use electricity in our offices, factories, and homes. All of those improvements can add up to big savings, not only in our monthly energy bills but in the total amount of fossil generation needed to power our society.

Dozens of states and power companies are already investing heavily in EE, and have built up decades of experience in measuring and verifying the many benefits it can yield for consumers and for the environment.

Incredible Potential to Cut Emissions and Save Money by Reducing Wasted Electricity

States and power companies around the country have been implementing EE programs for decades, and have increased their efforts in recent years as experience with the benefits of EE has grown.

26 states in diverse regions of the country, from Arizona and Colorado in the Southwest to industrial Midwest states like Ohio and Illinois, now have “energy efficiency resource standards” or similar policies that require utilities to achieve a certain amount of energy savings each year.

State spending on EE programs increased by 28 percent between 2010 and 2012.

As EE policies and investments have grown, so have energy savings.

In 2011, state EE programs saved a total of 22.9 million megawatt-hours — roughly equivalent to the entire annual output of seven 500 megawatt coal-fired power plants.

These savings increased 22 percent since 2010 and, importantly, count only those savings achieved in the first year these EE measures are in place.

Because most EE measures continue to yield energy savings years or even decades after they are installed, the cumulative savings from these state EE programs are much larger.

A recent study by the American Council for an Energy Efficient Economy found that EE programs and policies are a key reason why residential and commercial electricity demand has remained stable since 2007.

As impressive as these developments are, they only scratch the surface of what could be achieved if we were to fully unlock the potential for EE to save energy and reduce emissions.

An exhaustive 2009 analysis by McKinsey & Company, for example, found that rigorous investment in cost-effective EE could reduce the country’s total energy consumption by 23 percent in 2020.

Energy savings on this scale would yield massive emission reductions — about 700 million metric tons of carbon dioxidein 2020 alone (more than 30 percent of power sector emissions today) – and at a cost per kilowatt-hour saved that is about 85 percent less than the average retail price of electricity.

The report also estimated that realizing these energy savings would create about 600,000 to 900,000 jobs through 2020.

Other national and regional studies have similarly found that EE represents a tremendous “win-win” opportunity for our climate, for families and consumers, and for the economy as a whole.

In 2012, for example, the Southwest Energy Efficiency Project (SWEEP) issued a report focusing on the potential benefits of scaling-up EE programs in six Southwestern states (Arizona, Colorado, Nevada, New Mexico, Utah, and Wyoming).

Based on the track record of “best practice” EE programs around the country, SWEEP found that these six states could reduce their electricity demand in 2020 by more than 20 percent while achieving net benefits of about $20 billion – amounting to $2,650 for every household in the region (largely in the form of lower energy bills).

Investments in EE at this scale would also create about 30,000 additional jobs in the region by 2020, and increase wages and salaries by more than $1 billion.

At the same time, these EE measures would reduce carbon pollution by more than 30 million metric tons in 2020, (a 16% reduction relative to expected emissions in 2020), while also reducing thousands of tons of pollutants that contribute to smog, acid rain, and harmful particulate pollution.

EE and the Carbon Pollution Standards

If you’ve read my colleague Megan Ceronsky’s earlier blog, you’ve already heard about section 111(d) of the Clean Air Act.

That section provides bedrock authority for EPA to issue Carbon Pollution Standards for existing power plants.  It also provides a broad, flexible framework for states and companies to deploy EE and other flexible approaches to reducing carbon pollution from the power sector.

Under section 111(d), EPA and the states will work together to reduce emissions from existing power plants.  EPA will issue “emission guidelines” that identify the “best system of emission reduction” for carbon pollution from existing power plants and the emission reductions achievable using that system.  The states then have the responsibility to develop plans that implement standards consistent with those guidelines.

Just a few weeks ago, Kate Konschnik, Policy Director of the Environmental Law Program at Harvard Law School, released a report that makes a strong legal case for considering EE as part of the “best system of emission reduction” that underpins EPA’s emission guidelines.

As Konschnik argues, the Clean Air Act grants EPA broad authority to consider flexible measures such as EE as a part of the best system of emission reduction for carbon pollution:

[B]ecause it is adequately demonstrated and cost-effective, imposes minimal environmental costs, and reduces overall energy requirements.

Moreover, as Konschnik points out, methods for quantifying and verifying EE-related energy savings and emission reductions are well-developed.

Over the last two decades, at least 35 states and two regional transmission organizations have adopted protocols for measuring and verifying energy savings from EE projects. These savings are now widely used as the basis for critical regulatory proceedings and market functions, including establishing utility rates, compensating EE in regional capacity markets, and carrying out long-term regional resource planning.

In addition, EPA has already allowed several states to credit emission reductions resulting from EE and renewable energy towards compliance with national air quality standards. EPA has also issued detailed guidance to the states on analytical approaches and tools that could be used for future programs.

Ensuring Smooth Implementation of EE in the Carbon Pollution Standards

Under traditional emissions trading programs such as the Regional Greenhouse Gas Initiative (RGGI) or California’s cap-and-trade system, the emission reduction benefits of EE are readily observed as emissions from power plants drop.

Under these programs, no separate system for tracking emission reductions from EE is necessary.  As a recent report by RGGI confirms, these programs are also funding significant investments in EE programs that have already helped 815,000 families.

However, some states may choose to directly incentivize EE through policies that credit individual projects and programs for their impacts on energy savings and emissions.

For this reason, EDF has worked with experts in the field to study how measurement and verification for such EE crediting systems could work in a way that is environmentally rigorous and administratively streamlined, and that builds on extensive state and regional experience with existing EE programs.

We recently submitted a report to EPA, developed by the Analysis Group, that lays out one possible framework for ensuring both desirable outcomes:

  • Rigorous measurement and verification of EE projects, and
  • Consistent methods for determining emission reductions that are attributable to EE projects

This framework recognizes the diverse approaches to measurement and verification of EE that are in use around the country. But in developing this framework, we were also struck by the significant progress that a number of organizations have made in developing best practices and consensus protocols for evaluating EE projects.

One example is the Department of Energy’s Uniform Methods Project (UMP), which has organized a multi-stakeholder process to develop rigorous yet streamlined measurement and verification protocols for different types of EE projects.

To date, UMP has released protocols addressing seven major EE project types and five “cross-cutting” evaluation issues. Eight more protocols are expected to be finalized in the coming months.

Other notable efforts to develop and encourage best practices in the field include:

EE: Ready for Prime Time

EE represents a historic opportunity to achieve extensive reductions in emissions of carbon pollution and other power sector pollutants that directly harm public health and the environment.

In many cases, EE measures will actually save families and businesses money over time and help strengthen the economy.

Decades of state and utility experience in designing and implementing EE programs have demonstrated that the benefits of EE are real, and that the policies and tools needed to incentivize EE and measure its effects are available.

EPA should fully mobilize the potential of EE by exercising its authority to consider EE in the design of the Carbon Pollution Standards, and by providing guidance to the states to facilitate the inclusion of EE in state plans implementing those standards.

Also posted in Clean Air Act, Clean Power Plan, Economics, Greenhouse Gas Emissions, Jobs / Read 2 Responses