Of Markets, Regulated and Deregulated

I’ve been studying the history of nuclear power for some time now. With that in mind, I found Fortune’s November story on “Southern’s Big Nuke Bet,” in which Geoff Colvin interviewed Tom Fanning, CEO of Southern Company, to be quite interesting. In the article, Fanning responds to the following question from Colvin:

[Geoff Colvin:] A couple of other utilities have decided to get out of nuclear. Constellation got out of plant development earlier this year, and NRG pulled out of its nuclear project in Texas. Is this just a case of differing business judgments, or is there something else?

[Tom Fanning:] It goes back to scale, credit quality, and credibility. When you think about the challenges that a small company will face building a $14 billion deal, that gets rather daunting.

The U.S. really is divided into two electricity markets. Some years ago many states deregulated, and they have what’s called merchant markets, where the price for electricity is largely set a day ahead or week ahead or month ahead. Remember this is going to take 10 years to build, and it’s going to be the largest capital asset in your portfolio, and you’re going to need to run it 30 to 50 years to earn that money back. Putting that magnitude of capital in a deregulated merchant market is exceedingly risky. Thankfully, Georgia Power operates in a vertically integrated regulated market where legislation and regulation are stable and constructive and will support this over time.

In other words, the major reason Southern Power is able to undertake the construction of a new nuclear power plant is because it operates in what looks a lot like a planned market. This is a point that some in the U.S. seem to ignore. For instance, in an article for the Heritage Foundation, Jack Spencer claimed that federal loan guarantees were not essential to the continued development of nuclear power in the United States, but that instead, free markets could be counted on to intervene in the government’s place.

But rather than being driven by “market” forces, history reveals time and again that the construction of nuclear power plants depends almost exclusively on state intervention. For instance, in recent years, EDF, Rosatom and China have been three of the most active developers of nuclear power projects worldwide. All are essentially state entities. As of January 2010, the French government owned 84.48% of EDF. While Rosatom and the Chinese nuclear industry are entirely owned by their respective governments.

Meanwhile, in the US, the nuclear “renaissance” is now essentially limited to Southern Company’s planned Waynesboro, GA facility. Of the other approximately two dozen applications submitted over the past few years, none are being actively being pursued at this time. By comparison, not only has Southern Company received $8.2 billion in loan guarantees from the federal government, as the interview above makes plain, the economic viability of the project additionally hinges on the fact that Georgia remains a regulated energy market, meaning that the ultimate costs of the project (whether the currently projected $14 billion, or more) will ultimately be borne by Georgia electricity ratepayers. This effectively offers the company a state-level guarantee on top of its federal loan guarantee.

In short, the preponderance of the evidence from both the US and the rest of the world suggests that heavy governmental subsidies, loan guarantees and/or liability exemptions — either explicitly or de facto — are essential to the development of nuclear power. By comparison, all of the literature I have read on the topic suggests that the market has yet to build a single nuclear plant.

Natural Gas and the State of the Union

In his latest State of the Union address, President Obama announced that:

We have a supply of natural gas that can last America nearly 100 years… The development of natural gas will create jobs and power trucks and factories that are cleaner and cheaper, proving that we don’t have to choose between our environment and our economy. And, by the way, it was public research dollars — over the course of 30 years — that helped develop the technologies to extract all this natural gas out of shale rock, reminding us that government support is critical in helping businesses get new energy ideas off the ground… Our experience with shale gas, our experience with natural gas, shows us that the payoffs on these public investments don’t always come right away. Some technologies don’t pan out; some companies fail. But I will not walk away from the promise of clean energy.

In addition to upsetting those concerned about the dangers of hydraulic fracturing, this part of his speech has also provoked criticism for “exaggerating” the role of the federal government in fostering the emergence of the natural gas boom.

For instance, a US News and World Report article entitled “Obama Exaggerates Role of Federal Government in Natural Gas Boom“ by Daniel Kish, senior vice president for policy at the Institute for Energy Research, asserts:

The president’s claim that the federal government helped create the hydraulic fracturing boom is specious at best.

However, even a cursory look at the historical record reveals that the government’s role in oil and gas technologies generally and hydraulic fracturing related technologies specifically is far more involved and complex than acknowledged by Kish’s article. For instance, despite his claims to the contrary, the government played an important role at many points in the last 30 years, including in the case of Mitchell Energy. According to one recent article:

Mitchell Energy’s first horizontal well was subsidized by the federal government, according to former geologist and Vice President for Mitchell. “They did a hell of a lot of work,” said Steward, “and I can’t give them enough credit for that. DOE started it, and other people took the ball and ran with it. You cannot diminish DOE’s involvement.”

Rather than an isolated example, this vignette is indicative of the substantial role played by the government in a variety of oil and gas technologies, many related to hydraulic fracturing as it is now practiced. For instance, during the 1970s the Department of Energy invested more than $92 million in research related to the extraction of natural gas from shale reservoirs.

This is not to say that private organizations have not played an important role as well. My point is not to declare a winner between government agencies and private industry, but simply to note that any thoughtful consideration of the record will show that both private organizations and government agencies were significantly involved in the process over a large period of time. In actor-network terms, innovation implicates heterogeneous social and material actors, and is likely to result in hybrid forms of organizing. As a result, framing the problem up as either private innovation or government support are likely to be dead on arrival as a practical matter.

Further, on top of its direct involvement in technology research (such as through the Department of Energy), a reasonable accounting of the government’s role would also consider the role of tax incentives (without which operators such as Mitchell would have been unlikely to have drilled wells), the role of favorable regulations such as the Energy Policy Act of 2005 (without which operators would not be exempt from the liabilities of hydraulic fracturing), and the important role played by agencies such as the EIA and USGS in quantifying available reserves (without which operators would have difficulty raising the capital necessary for drilling).

In short, consistent with President Obama’s claims, and contrary to the assertions of US News and World Report, it is difficult to conceive of the oil and gas industry as we now know it without significant support and involvement by the US government.

Recycled Wastewater

Hydraulic fracturing consumes million of gallons per well. Recently, much has been made of the recycling of the “produced water” (aka, toxic waste). Turns out, far less wastewater is being recycled than originally reported.

From 57% to 17% recycled

From 57% to 17% recycled

Hydraulic Fracturing and Marcellus Shale

Yesterday, hydraulic fracturing and Marcellus shale were front page news — both locally and nationally.

The top story in the Centre Daily Times was “Forest Leases Under Fire.” Already, the Commonwealth of Pennsylvania has issued leases to gas companies for nearly half of its 1.5 million acres of state forest. At issue are concerns that current Governor Tom Corbett will over turn a moratorium enacted by outgoing Governor Ed Rendell. According to a study by the Department of Conservation and Natural Resources (DCNR) there remain ”zero state forest land acres suitable for gas leasing involving surface disturbance.”

In an interesting twist, the article reported that further development would threaten the sustainability certification of Pennsylvania’s forests. In particular, the Forest Stewardship Council (FSC) has certified that the Commonwealth’s state forest operations are sustainable, based on factors including a 2 percent rate of conversion of forests over any five-year span. However, even without further leasing, several state forests are projected to lose more than 2% of their acreage to conversion by 2020, jeopardizing their certification. Some 35 wood-industry related companies have attained FSC certification for adopting sustainable practices in Pennsylvania, which they use as a selling point for their products. They stand to forfeit their certification if their harvests come from forests deemed to be losing acreage unsustainably. An expansion of drilling in state forests — as Corbett has suggested — would exacerbate the problem.

In another front page story, the New York Times continued its Drilling Down series which examines the risks of natural-gas drilling and efforts to regulate this rapidly growing industry. The latest installment announced “Wastewater Recycling No Cure-All in Gas Process.” Lately, the oil and gas industry has been touting innovations in wastewater recycling. But apparently the rhetoric and reality don’t match up. In Pennsylvania, for example, natural gas companies recycled less than half of the wastewater they produced during the 18 months that ended in December, according to state records.

According to Brent Halldorson, chief operating officer of Aqua-Pure/Fountain Quail Water Management, a drilling wastewater recycling company: “No one wants to admit it, but at some point, even with reuse of this water, you have to confront the disposal question.” He added that the wastewater contains barium, strontium and radioactive elements that need to be removed.

Data posted by the commonwealth on Tuesday, show that operators produced more than 680 million gallons of wastewater in the year and a half that ended in December 2010. Of this amount, well operators reported recycling at least 320 million gallons. At least 260 million gallons of wastewater were sent to plants that discharge their treated waste into rivers. Another 50 million gallons or more of wastewater is unaccounted for, according to state records.

US Energy Flow

While I’m on the subject of flow charts, I thought this visual from the Lawrence Livermore National Laboratory brings into relief the changes we are facing in terms of energy supply.

First, there is the sheer inefficiency of the overall system — of 105,000 petajoules (PJ) of energy consumed, some 57,943 PJ are wasted. Second, despite all the debate about nuclear, wind and solar, together they amount for very little of our energy supply. It is a world of coal, natural gas and oil. According to the analysis:

The national energy balance sheet reveals a number of pertinent facts. First, coal-fired power plants generate almost half of our electricity and are responsible for nearly 2 billion metric tons of greenhouse gas emissions per year—equivalent to the emissions of the entire transportation industry. Greenhouse gas emissions from coal, and to a lesser extent natural gas and oil, explain why the electric power industry is the single largest contributor to U.S. greenhouse gas emissions. Second, although there has been explosive growth in solar, wind and biomass power in recent years, renewable generation still provides a small amount of our generating capacity. Third, the current electricity system, from generation to end-user, wastes vast sums of energy; for example, a light bulb receives less than half of the energy contained in a piece of coal. Finally, the U.S. transportation sector is almost wholly reliant on oil, more than half of which is imported.

United State Energy Flow (Petajoules, 2007)
United State Energy Flow (Petajoules, 2007)

Pennsylvania Green Energy

The Environmental Protection Agency’s Green Power Partnership released the top 50 purchasers of green energy in the country. The Commonwealth of Pennsylvania is #5 on the list. The state’s annual purchases totaled 500 million green kilowatt hours, equivalent to 50% of total power consumption. Also in the top 50 from Pennsylvania are several universities, including:

  • University of Pennsylvania (#19; 202 million KWh; 48% of electricity consumption)
  • Carnegie Mellon University (#44; 87 million KWh; 75% of electricity consumption); and
  • Pennsylvania State University (#46; 84 million KWh; 20% of electricity consumption).

Out of curiosity, I translated these figures into KWh per student:

Obviously, these are wide ranges and should be interpreted with care. Students are only one source of electricity demand on a college campus.  Moreover, it is not clear whether the figures for Penn State on the EPA website are for just the University Park campus, or for all the Commonwealth Campuses (out of convenience I have assumed the latter). If instead, these figures are for University Park only, then PSU’s electricity consumption for this campus only would jump to 9,493 KWh per student. Additionally, the Penn State University Park campus steam plant consumes about 7,500 tons of coal per year, and produces about 20,000 MWh per year, or 7% of the campus’s electricity demand, as well as about 175 tons of steam per hour, which is used for heating campus buildings. To make an apples to apples comparison, this would also need to be factored in to the calculations.

PECO Reduces Energy Demand

Act 129, Pennsylvania’s historic energy savings law passed in 2008, requires Pennsylvania’s utilities to reduce both overall demand for electricity by one percent by 2011 and three percent by 2013, and peak demand for electricity by 4.5 percent by 2013.

This week PECO announced that it has already met its electricity savings requirement for 2011. PECO Smart Ideas, the utility’s Act 129 program, has saved its customers over $68 million. The energy savings from reducing demand has the same impact as not driving about 457 million miles or planting nearly 440,000 trees.

From PennFuture’s Session Daze 5-Nov-2010.

EPA Fuel Economy Labels

The EPA and the National Highway Traffic Safety Administration (NHTSA) are in the process of revising the fuel economy label that is required on all new cars and light-duty trucks sold in the U.S. Two prototypes — a horizontal and a vertical version — are the primary label designs under consideration.

Recently, Siegel + Gale, a leading strategic branding agency, completed user testing on both of the proposed label designs. Neither was perfect, but overall the horizontal label tested as more usable.

EPA Fuel Economy Labels

EPA Fuel Economy Labels