Market Forces

The United States Could Lead the Next Tech Revolution by Investing in Clean Energy

New Risky Business Report Finds Transitioning to a Clean Energy Economy is both Technologically and Economically Feasible

In the first Risky Business report, a bi-partisan group of experts focused on the economic impacts of climate change at the country, state and regional levels and made the case that in spite of all that we do understand about the science and dangers of climate change, the uncertainty of what we don’t know could present an even more devastating future for the planet and our economy.

The latest report from the Risky Business Project, co-chaired by Michael R. Bloomberg, Henry M. Paulson, Jr., and Thomas F. Steyer, examines how best to tackle the risks posed by climate change and transition to a clean energy economy by 2050, without relying on unprecedented spending or unimagined technology. The report focuses on one pathway that will allow us to reduce carbon emissions by 80 percent by 2050 through the following three shifts:

1. Electrify the economy, replacing the dependence on fossil fuels in the heating and cooling of buildings, vehicles and other sectors. Under the report’s scenario, this would require the share of electricity as a portion of total energy use to more than double, from 23 to 51 percent.
2. Use a mix of low- to zero-carbon fuels to generate electricity. Declining costs for renewable technologies contribute in making this both technologically and economically feasible.
3. Become more energy efficient by lowering the intensity of energy used per unit of GDP by about two thirds.

New Investments Will Yield Cost Savings

Of course, there would be costs associated with achieving the dramatic emissions reductions, but the authors argue that these costs are warranted. The report concludes that substantial upfront capital investments would be offset by lower long-term fuel spending. And even though costs would grow from $220 billion per year in 2020 to $360 billion per year in 2050, they are still likely far less than the costs of unmitigated climate change or the projected spending on fossil fuels. They’re also comparable in scale to recent investments that transformed the American economy. Take the computer and software industry, which saw investments more than double from $33 billion in 1980 to $73 billion in 1985. And those outlays continued to grow exponentially—annual investments topped $400 billion in 2015. All told, the United States has invested $6 trillion in computers and software over the last 20 years.

This shift would also likely boost manufacturing and construction in the United States, and stimulate innovation and new markets. Finally, fewer dollars would go overseas to foreign oil producers, and instead stay in the U.S. economy.

The Impact on American Jobs

The authors also foresee an impact to the U.S. job market. On the plus side, they predict as many as 800,000 new construction, operation and maintenance jobs by 2050 would be required to help retrofit homes with more efficient heating and cooling systems as well as the construction, operation and maintenance of power plants. However, job losses in the coal mining and oil and gas sectors, mainly concentrated in the Southern and Mountain states, could offset these employment gains. As we continue to grow a cleaner-energy economy, it will be essential to help workers transition from high-carbon to clean jobs and provide them with the training and education to do so.

A Call for Political and Private Sector Leadership

Such a radical shift won’t be easy, and both business and policy makers will need to lead the transition to ensure its success. First and foremost, the report asserts that the U.S. government will need to create the right incentives.  This will be especially important if fossil fuel prices drop, which could result in increased consumption.  Lawmakers would also need to wean industry and individuals off of subsidies that make high-carbon and high-risk activities cheap and easy while removing regulatory and financial barriers to clean-energy projects. They will also need to help those Americans negatively impacted by the transition as well as those who are most vulnerable and less resilient to physical and economic climate impacts.

Businesses also need to step up to the plate by auditing their supply chains for high-carbon activities, build internal capacity to address the impacts of climate change on their businesses and put internal prices on carbon to help reduce risks.

To be sure, this kind of transformation and innovation isn’t easy, but the United States has sparked technological revolutions before that have helped transform our economy—from automobiles to air travel to computer software, and doing so has required collaboration between industry and policymakers.

We are at a critical point in time—we can either accelerate our current path and invest in a clean energy future or succumb to rhetoric that forces us backwards. If we choose to electrify our economy, reduce our reliance on dirty fuels and become more energy efficient, we will not only be at the forefront of the next technological revolution, but we’ll also help lead the world in ensuring a better future for our planet.

Posted in Energy efficiency, Politics, Technology / Comments are closed

America needs critical energy data in a “post-fact” world: 2 quick examples

This post originally appeared on EDF’s Voices blog.

We learned earlier this month that scientists are rushing to save critical climate data on government websites before the Trump administration takes over in January. They fear that such data may be deleted and forever lost, and it’s not hard to see why.

The incoming administration has announced plans to roll back existing climate change initiatives and there have been proposals to cut research programs that support a broad range of scientific expertise, such as weather prediction critical to farmers and to states vulnerable to major disasters.

In addition to science-based climate data, however, there is concern that other critical information and analyses under the purview of agencies such as the U.S. Department of Energy may be imperiled early next year. Unbeknownst to many – including, perhaps, to the president-elect and his circle of insiders – all these datasets benefit a broad range of sectors that rely on solid economic forecasting.

Here are just two datasets that are absolutely central to the work economists and analysts do to help industry and other decision-makers interpret energy opportunities and challenges in a rapidly changing world.

1. Energy forecasts: companies depend on them

The Annual Energy Outlook reports produced by the Energy Information Administration – a 30-year-old, independent office within the Energy Department – offers economic and energy forecasts with data invaluable to the transportation and manufacturing sectors, among others. Researchers, regulators and policymakers use them, too.

It includes data on economy-wide energy consumption and electricity prices all the way down to minute information such as carbon emissions from residential clothing dryers. Companies use the report to inform energy cost projections as they strategize and forecast business operations.

This way, an aluminum smelting company that uses a very energy-intensive process, for example, can anticipate changes in energy prices and make decisions accordingly.

We already heard about a proposal to cut NASA’s climate research funding, so it’s no mystery we also worry about how a report such as the Annual Energy Outlook could be affected by a wider crackdown on scientific and economic research and data generation.

Notably, EIA was part of a controversial questionnaire the Trump administration recently sent the Energy Department.

2. Cost comparisons: help investors be smart

The cost of renewable energy is a constant source of debate and has a direct impact on innovation and investment. A utility that needs to add generation, for example, must remain informed about how the operational costs of wind turbines compare with those of a natural gas-fired power plant.

The Energy Department’s prestigious National Renewable Energy Laboratory provides a terrific amount of research on the costs of this and other sources of renewable energy, feeding them into tools such as the Transparent Cost Database.

These estimates help investors as well as consumers evaluate the cost of renewable energy sources in direct comparison to fossil fuels in an unbiased way. The outcome is smarter and more informed decisions.

Our national labs would be overseen by Texas Gov. Rick Perry if he’s confirmed as the Trump administration’s secretary of energy. The governor, who lacks the science credentials of past energy secretaries, once said he would eliminate the agency altogether.

So why the panic over data?

We know that many of the people picked for the Trump cabinet so far openly question climate science, or science in general, and that several of the nominees who will oversee agencies producing such data have a history of putting the interest of the fossil fuel industry ahead of progress on clean energy.

Beyond that, potential budget cuts are looming. Government agency heads opposed to climate action or investments in renewable energy could easily starve the programs that maintain, update and share data with the public if such information no longer fits the administration’s agenda.

Scientists are thus taking steps to download data in preparation for the day when access may be interrupted.

But a country needs hard facts and sound evidence to make smart decisions about its energy and economic future. So we need to continue to lean heavily on the apolitical data that hardworking researchers in government produce for our industry, farmers, entrepreneurs, local and state policymakers, and world-renowned researchers.

Perhaps more than ever before, we must protect and defend this vital information.

Posted in Climate science, Politics / Read 1 Response

How Companies Set Internal Prices on Carbon

This post was co-authored with Elizabeth Medford

Despite the uncertainty created by the recent election, companies around the globe are demonstrating a commitment to keeping climate change in check. More than 300 American companies signed an open letter to President-elect Trump urging him not to abandon the Paris agreement. Others are acting on their own to reduce emissions in their daily operations, by setting an internal price on carbon.

The number of companies incorporating an internal carbon price into their business and investment decisions has reached new heights, a recent CDP report shows, with an increase of 23 percent over last year. The more than 1,200 companies that are currently using an internal carbon price (or are planning to within two years) are using them to determine which investments will be profitable and which will involve significant risk in the future, as carbon pricing programs are implemented around the world. Sometimes, they also use them to reach emissions reduction goals.

Not all carbon prices are created equal, and companies differ in how they set their specific price. Here’s a look at some of these methods:

Incorporating Carbon Prices from Existing Policies

 Some companies set their carbon price based on policies in the countries where they operate. For example, companies with operations in the European Union might decide to use a carbon price equal to that of the European Union Emissions Trading System (EU ETS) allowances, and those operating in the Northeastern United States might adopt the carbon price that results from the Regional Greenhouse Gas Initiative market.

ConocoPhillips, for example, focuses its internal carbon pricing practices on operations in countries with existing or imminent greenhouse gas (GHG) regulation. As a result, its carbon price ranges from $6-38 per metric ton depending on the country. For operations in countries without existing or imminent GHG regulation, projects costing $150 million or greater, or that results in 25,000 or more metric tons of carbon dioxide equivalent, must undergo a sensitivity analysis that includes carbon costs.

Using Self-Imposed Carbon Fees

Others take a more aggressive approach by setting a self-imposed carbon fee on energy use. This involves setting a fee on either units of carbon dioxide generated or a proxy measurement like energy use. These programs also often include a plan for using the fees such as investment in clean energy or energy efficiency measures. This can be an effective method for incentivizing more efficient operations.

Microsoft, for example, designed its own system to account for the price of its carbon emissions. The company pledged to make its operations carbon neutral in 2012 and does so through a “carbon fee,” which is calculated based on the costs of offsetting the company’s emissions through clean energy and efficiency initiatives. Each business group within Microsoft is responsible for paying the fee depending on how much energy it uses. Microsoft collects the fees in a “central carbon fee fund” used to subsidize investments in energy efficiency, green power, and carbon offsets projects. Still, by limiting carbon fees to operational activities, Microsoft has yet to address a large chunk of their emissions.

Setting Internal Carbon Prices to Reach Emissions Reduction Targets

 Other companies set an internal carbon price based on their self-adopted GHG emissions targets. This involves determining an emissions reduction goal and then back-calculating a carbon price that will ensure the company achieves its goal by the target date. This method is a broader approach focused more on significantly reducing emissions while also mitigating the potential future risk of carbon pricing policies.

Novartis, a Swiss-based global healthcare company, uses a carbon price of $100/tCO2 and cites potential climate change impacts as a motivator. The company has its own greenhouse gas emissions target, which it is using to cut emissions to half of its 2010 levels by 2030. These internal policies mean that Novartis, which is included in the European Union’s Emissions Trading Scheme (EU ETS), has been able to sell surplus allowances and thus far avoid an increase in operating costs.

Where we go from here

 While these internal carbon pricing activities are welcome – and we hope they continue – they are not sufficient to reduce greenhouse gases to the degree our nation or world requires. Like these forward thinking companies, nations around the world, including the United States, need to consider the costs of inaction, including the climate-related costs, to avoid short-sighted investments. Ultimately, we will need public policies that put a limit and a price on carbon throughout the economy.

The spread of internal carbon pricing could signal greater support for carbon pricing by governments. But companies can do more: the ultimate test of a company’s convictions and commitment to carbon pricing might be their willingness to advocate for well-designed, ambitious policies that achieve the reductions we need.

Posted in Cap and Trade, International, Politics / Comments are closed

Benefits of Clean, Distributed Energy: Why Time, Location, and Compensation Matter

solar-panels-new-yorkNew York is preparing for a future in which clean, distributed energy resources – such as energy efficiency, electric vehicles, rooftop solar panels, and other types of local, on-site power generation – form an integral part of a more decentralized electric grid. This is the future the New York Public Service Commission (PSC) wants to see realized through its signature initiative, Reforming the Energy Vision (REV).

This vision means the role of the customer is changing: from recipient to both user and provider of electricity and other grid services. By investing in clean, distributed energy resources, customers can make the electric system more efficient and contribute to a cleaner environment, while gaining greater control over their energy bills. Read More »

Posted in Energy efficiency / Read 3 Responses

Transforming the Electric System to Reduce Costs and Pollution

electrical-power-linesBy: Beia Spiller and Kristina Mohlin

Electricity markets around the world are transforming from a model where electricity flows one way (from electricity-generating power plants to the customer) to one where customers actively participate as providers of electric services. But to speed this transformation and maximize its environmental and cost benefits, we need to understand how customer actions affect the three distinct parts of our electric system: generation, transmission, and distribution. Read More »

Posted in Energy efficiency / Comments are closed

The Atlantic’s year-end feature “Hope & Despair”

Lucy Nicholson / Reuters / Zak Bickel / The Atlantic

Lucy Nicholson / Reuters / Zak Bickel / The Atlantic

Reason for despair: Climate change. It’s the perfect problem: more global, more long-term, more irreversible, and more uncertain that virtually any other public-policy problem facing us. Climate change is a lot worse than most of us realize. Almost regardless of what we do on the mitigation front, we are in for a whole lot of hurt.

On the policy front, we have now talked for more than 20 years about how we need to turn this ship around “within a decade.” Not unlike the ever-elusive fusion technology, that hasn’t happened yet. Global carbon emissions declined slightly this year—for the first time ever without a global recession—but the trends are still pointing in the wrong direction. Worse, turning around emissions is only the very first step. It’s not enough to stabilize the flow of water going into the bathtub when the goal is to prevent the tub from overflowing. We need to turn around atmospheric concentrations of greenhouse gases. That means turning off the flow of water into the tub—getting net emissions to zero and below. It doesn’t help our efforts that many people seem to confuse the two. A study involving over 200 MIT graduate students faced with this same question revealed that even they confuse emissions and concentrations—water flowing into the tub and water levels there. If MIT graduate students can’t get this one right, what hope is there for the rest of us?

Reason for hope: Climate change. Many signs point to some real momentum to finally tackle this momentous challenge.

The Paris Climate Accord builds an important foundation. It enables transparency, accountability, and markets to help solve the problem. Many governments are moving forward with pricing carbon: from California to China, from Sweden to South Africa, we see ambitious action to reign in emissions in some 50 jurisdictions. Meanwhile, lots is happening on the clean-energy front. That’s particularly true for solar photovoltaic power, which has climbed up the learning curve—and down the cost curve—faster than most would have expected only five years ago. That has also provided an important jolt for sensible climate policy. Then there’s R&D for entirely new technologies. Bill Gates leading an investment coalition with $1 billion of his own money is only one important sign of movement in that direction. The excitement for self-driving, electric vehicles is palpable up and down Silicon Valley, to name just one potentially significant example. In the end, it’s precisely this mix of Silicon Valley, Wall Street, and, of course, Washington that will lead—and, in part, is already leading—to the necessary revolution in a number of important sectors, energy and transportation chief among them.

Excerpt from The Atlantic‘s year-end feature on Hope and Despair: “Can the Planet Be Saved?

Posted in Cap and Trade, International, Politics, Technology / Comments are closed