Jimmy Carter: The Great Deregulator?

from Econlib

Jimmy Carter’s term as U. S. President (1977–1981) included major deregulation with airlines, motor carriers, and railroads. Other advances were scored in communications, tax policy, and regulatory budgeting. But the “great deregulator” had a very different approach with energy, which (along with inflation) defined his economic infamy.

Carter began wellhead deregulation of petroleum and natural gas—but with a Windfall Profit Tax for crude oil and intrastate regulation for gas. Carter’s basic mindset was oriented toward the federal planning of supply and demand, outlined in the National Energy Plan of 1977. The visible hand of government, not the invisible hand of markets, was to be controlling.

What Was the Problem?

The energy crisis in Carter’s time was blamed on the irreversible, worsening depletion of oil and gas. Physical fixity meant an increasing cost of extraction, hence the problems of supply and price. The “economics of exhaustible resources” was mainstream fare in the textbooks and journals, spawning a new subdiscipline, energy economics. The engineering mind of the 39th President was determined to overcome a perceived limit to growth.

Oil shortages in 1972–74, and natural gas curtailments in the winters of 1971/72 and 1976/77, had set the stage. To Carter, and his energy czar James Schlesinger, [1] crude oil and natural gas had to be replaced by super-abundant coal, synthetic oil and gas from coal (synfuels), and supplemented by renewable energies. (Nuclear, never embraced, was completely off the table with the Three Mile Island incident in March 1979.) 

On the demand side, less energy had to be consumed in transportation, industry, and power generation, not to mention in homes and businesses.

Major new legislation—interpreted in many thousands of Federal Register pages—empowered the newborn U.S. Department of Energy (1977). The new laws (in 1978) were the National Energy Conservation Policy Act; Power Plant and Industrial Fuel Use Act; Public Utilities Regulatory Policy Act; Energy Tax Act; and Natural Gas Policy Act. 

And in 1980: the U.S. Synthetic Fuels Corporation Act; Biomass Energy and Alcohol Fuels Act; Renewable Energy Resources Act; Solar Energy and Energy Conservation Act; Solar Energy and Energy Conservation Bank Act; Geothermal Energy Act; and Ocean Thermal Energy Conversion Act. 

Planning, More Planning

The National Energy Plan of 1977 stated, “neither Government policy nor market incentives can improve on nature.” [2] While recognizing the perverse effects of price ceilings on supply and demand, Carter blamed foreign political control by OPEC for his activism (“there was no free market or effective competitive forces relating to world oil supplies and price,” he stated in his memoirs). [3]

These false rationales resulted in a regulatory experience that was frustrating, wasteful, even bizarre. A new term, gapism, described the multitude of government programs passed to synthetically increase supply and reduce demand, given “disequilibrium” under price controls. “One can only conjecture that many gapologists do not really appreciate the fact that at higher prices consumers really do buy less and producers offer more,” observed Edward J. Mitchell, “or that they believe these tendencies are so weak that only astronomical prices will eliminate gaps.” [4]

The Economists Error

Experts, academics, and planners were all-in with the fixity-depletion premise of Carter energy policy. Forgotten or ignored was Scarcity and Growth: The Economics of Resource Availability (1963), which challenged depletionism and credited “man’s ingenuity and wisdom” with “increasing, not diminishing, returns.” [5]

“There has been a certain tendency to regard technological advance as a chancy phenomenon, a bit of luck that is sure to run out sooner or later (with the ever-present implication that it will be sooner),” explained Harold J. Barnett and Chandler Morse. [6] But data suggested otherwise. “Every cost-reducing innovation opens up possibilities of application in so many new directions that the stock of knowledge, far from being depleted by new developments, may even expand geometrically.” [7]

It would take a contrarian, Julian Simon, to resurrect Barnett-Morse’s “great 1963 book” in the Carter era. [8] And in the 1980s, with energy prices decontrolled, the resource optimists would win the debate. Energy economics was just economics, after all. And less dismal.

Conclusion

Jimmy Carter was apparently well-intentioned in choosing the bureaucratic means to provide reliable and affordable energy for Americans. But he could have ended the energy crisis quickly and simply with an opposite public policy. 

Carter was under the sway of false theories about what human ingenuity could accomplish in a free market, with or without major negative foreign policy events. Those false ideas had resounding negative consequences. The energy lessons of the 1970s should not be forgotten.

[1]  “Schlesinger’s views on national economic policy were closer to French indicative planning than to the invisible hand ….” James L. Cochrane, “Carter Energy Policy and the Ninety-fifth Congress.” In Energy Policy in Perspective, Craufurd D. Goodwin, ed. (Washington, DC: The Brookings Institution, 1981), p. 553.

[2] Executive Office of the President, Energy Policy and Planning Office, The National Energy Plan (Washington, DC: GPO, 1977), p. xiii.

[3]  Jimmy Carter, Keeping Faith: Memoirs of a President (New York: Bantam Books, 1982), p. 94. In a 1977 address to the nation, Carter used the memorable phrase “the moral equivalent of war” to describe America’s challenge against OPEC and oil imports in general.

[4] Edward J. Mitchell, U.S. Energy Policy: A Primer (Washington, DC: American Enterprise Institute, 1974), pp. 20–21.

[5] Harold J. Barnett and Chandler Morse, Scarcity and Growth: The Economics of Natural Resource Availability (Baltimore, MD: Johns Hopkins Press, for Resources for the Future, 1963), pp. 3, 8.

[6] Barnett and Morse, Scarcity and Growth, p. 235.

[7] Barnett and Morse, Scarcity and Growth, p. 236.


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January 16, 2025 at 08:01AM

Poolewe DCNN 0434 – A picturesque but highly modified beauty not improving with age.

57.77431 -5-59728 Met Office CIMO Assessed Class 4 Archived temperature records from 1/1/1963

The Met Office frequently gives slightly misleading names for its sites and this location is much better known as the internationally famous Inverewe Gardens. The Met Office currently assesses the site as Class 4 but is subject to review and/or relocation. The cause of this “highly modified beauty” also highly modifies the weather station….and not for the better.

I have an excellent AA guide book from the 1980’s, that I still use on days out. Entitled “An Illustrated Guide to Britain’s Coast”, it highlights Inverewe Gardens as follows:

“Loch Ewe lies on almost the same latitude as Leningrad and Labrador and yet Inverewe Gardens on its shore are a riot of sub tropical colour. The transformation of a barren peninsula of red sandstone into a green oasis of fertility was the vision of one man – Osgood MacKenzie.

MacKenzie, a Scottish laird acquired the peninsula in 1862. The only soil was acid black peat and the only vegetation it supported was some stunted heather and a single dwarf willow just 3 feet high. Mackenzie realised, however, that the North Atlantic Drift, which gives the the coasts of Ireland and Scotland their mild humid weather, might encourage plants to grow. So he started to plant trees as shelter belts against the strong prevailing winds, and to replace the stony soil with creels of the blue clay that was washed up on the shore. Over the next 60 years he created and continuously improved his wild and woodland gardens.

Today Inverewe Gardens are owned by the National Trust for Scotland. Paths meander through 64 acres of Monterey Pines and Magnolia, Rhododendrons and Hydrangea, Eucalyptus and exotic shrubs from all over the world. No matter what time of year it is, some plant will be in bloom”

Two points come across from the above account, firstly Inverewe Gardens have just been added to my “bucket list” of places to visit, but more relevant here is that they certainly cannot be considered “natural”. Sea lochs on the west coast of Scotland are inevitably mild throughout the year with frosts almost as rare as the Isles of Scilly. Mackenzie magnified this effect through his extensive long term adjustments – I would be fascinated to know how many tonnes of clay were moved.

Inevitably, and quite correctly, a weather station was installed at what became effectively a real world horticultural research site as much by coincidence rather than intent. The variations between this artificial environment and the natural one are well worth recording. The onsite horticulturalists definitely need accurate information.

How much such a site can contribute to not only the historic temperature record but also immediate forecasting (wind speed measurement would be somewhat irrelevant) is more open to debate. It could be argued that such sites would still indicate long term temperature changes though just from a higher base level. This argument tends to fall down in that given the continuous ongoing modifications to the site it is not possible to identify and isolate these purely localised anthropogenic effects.

For a close examination of the weather station itself, the National Trust for Scotland helpfully highlights it in a very “informative” article. https://www.nts.org.uk/stories/inverewes-weather-station

I do not feel it is being cynical to question quite how such an exceptionally artificially modified site can “improve the Met office’s forecasting accuracy” and regarding “climate modelling” the operative word is surely “modelling” rather than analysis of accurate natural environment data. I would add, as per my Malham Tarn review, that I feel National Trusts should stick to their primary remit rather than pursue “Climate Change” activism. This point is further illustrated by the suggested relocation requirement of the existing weather station pictured below.

To analyse this Trust comment (note: it is not directly attributable to the Met Office but would almost certainly be instigated by them) – firstly, the vegetation around the screen has become overgrown, secondly, this has made the readings inaccurate. Again I do not feel I am being cynical in observing that these are extensive horticultural gardens and will have all the equipment, staffing, expertise and finance to simply remove the overgrowth. Why hasn’t this been done in the past as it is their direct responsibility? Is it really logical to unnecessarily spend capital to relocate the screen to “in front of the walled garden” where its readings are only ever likely to become more unrepresentative of the natural environment.

The issue with Inverewe/Poolewe weather station is the inclusion of another known unrepresentative location in the historic temperature record AND that it is potentially being relocated to actually become even more unrepresentative. This does seem rather at odds with observational integrity for climate reporting purposes.

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January 16, 2025 at 06:51AM

French Nuclear: End of the Line?

From MasterResource

By Kennedy Maize — January 15, 2025

“Construction of the advanced ‘European Pressurized Reactor’ (EPR) at Flamanville began in 2007. It was projected to come into service in 2012 at a cost of $3.4 billion. The final cost, according to (Électricité de France) is about $13.7 billion.”

Last month (December 21), the 1,600-MW Flamanville nuclear power plant near Normandy (below) began delivering electricity to the French and European grid. It became the first new unit in France’s once-aggressive nuclear power program since 1996. The new reactor becomes the 57th in the French fleet.

EDF (Électricité de France) the French state-owned electric utility, was once seen as at the forefront of nuclear power, ahead in many ways of even the U.S., which has had its own troubles moving beyond its initial nuclear boom times. No more.

Construction of the advanced “European Pressurized Reactor” or EPR at Flamanville began in 2007. It was projected to come into service in 2012 at a cost of €3.3 billion (or about $3.4 billion). The final cost, according to EDF, is about €13.3 billion ($13.7 billion).

EDF’s Generation 111+ EPR, originally designed by French nuclear developer Areva, has meant a world of trouble for France and some of the other nations that have bought the machines. The first two reactors went to China, where Taishan 1 and Taishan 2 went into service in 2018 and 2019 respectively. While the Chinese are opaque about their nuclear program, the two EPR reactors suffered severe construction delays, taking almost twice the 46 months Areva projected. Taishan 1 was shut down between July 2021 and August 2022 for repairs.

EDF’s EPR experience in Europe, where information is more available and reputable, has been worse. Finland contracted for an EPR its existing nuclear site on Olkiluoto Island. Construction began in 2005 with operation planned for 2009, Olkiluoto 3 went into service in 2023 after multiple problems. The final cost came in at over €11 billion ($11.5 billion), much of that absorbed by Areva.

In Britain, EDF’s British subsidiary is building the two-unit, 3,200-MW Hinkley Point C EPR project. Hinkley Point has suffered similar woes to the other EPR projects. A year ago, EDF announced that the price tag for the two units would hit £41.6-£47.9 billion ($52.3 billion-$60.2 billion), with the first unit coming online in 2029-2031. That remains speculative.

Despite these problems, France is doubling down on nuclear, with a new, scaled-down 1,200-MW EPR design, know as EPR2. In 2022, President Emmanuel Macron announced an aggressive “renaissance” of French nuclear ambitions, starting with construction of six EPR2 units at its Penly site in northern France and another six to follow elsewhere. In July 2023, EDF filed an application with French nuclear regulators for approval of two EPR2 units at Penly.

Macron’s nuclear optimism has generated skepticism (and his government is on shaky grounds, not apparently related to his nuclear enthusiasm).

Veteran French wind energy financier and commentator Jérôme Guillet, who publishes an eponymous Substack newsletter Jérôme à Paris, has doubts about the future of the nukes. He wrote before Dec. 21 that

this is the last gasp of nuclear – maybe some people hope to see Flamanville being finally connected to the grid in France, and multiple PR stunts by Microsoft, Amazon et al. (which are just announcements of developments, i.e. highly conditional commitments to purchase electricity) as the start of a renaissance for the sector, but it’s more like a last gasp – in fact 2024 is most likely the year where wind+solar overtook nuclear in the USA, as well as coal.

Flamanville, he writes, “is likely one of the last nuclear plants to be built in Europe. Hinckley Point may be completed at some point in the future in the UK, but even in France the next ones are in doubt, with decisions on future investments postponed. “By the time any new nuclear plant in the West gets built, the transformation of our power systems towards renewables dominance will be over.”

Jerome is also dismissive of the specter of furious growth in electric demand, which is fueling much of the nuclear boosterism. “Despite all the breathless announcements about AI and data centers,” he observes, “overall demand is mostly stable in the US (increasing by 2% in 2024 after decreasing by the same in 2023), and shrinking fast in Europe.” He concludes:

Some are blaming European deindustrialization (and collective suicide caused by crazy green policies and/or naivety about Russia, (even if these are two contradictory and inconsistent arguments) but the trend predates the war in Ukraine. The reality is that we are continuously improving industrial processes while moving towards services, and a service economy is less energy intensive than a more primitive one. Even in emerging markets energy intensity is going down fast.

————

This was originally posted at The Quad Report, the blog site of electricity expert Kennedy Maize.


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January 16, 2025 at 04:03AM

Will blackouts come to Britain?

By Paul Homewood

 

Freddie Sayers is joined by energy analyst Kathryn Porter to break down the National Grid numbers and find out how Net Zero might cause blackouts by 2030.

 

 

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January 16, 2025 at 03:42AM