It Doesn't Matter If We Never Run Out of Oil: We Won't Want to Burn It Anymore

Like whale oil in the 1860s, oil today has become uncompetitive -- even at low prices -- and that will only become truer with time.

A man in Germany examines the solar panels on his roof, making power he can resell at an excellent financial return. Germany recently installed more solar cells in a single month than the United States did in all that year. (Reuters)

Charles C. Mann is a great storyteller, but "What If We Never Run Out of Oil?" tells the wrong story and is marred by bloopers.

Mann's story is entirely about quantity of supply, not price nor the more-efficient use it encourages. Yet mainstream analysts see "peak oil" emerging not in supply but in demand: OECD oil use peaked in 2005, U.S. gasoline use peaked in 2007, and some analysts think world oil use may peak in this decade. Why? Modern technologies to save or displace oil cost far less than oil. The 2011 study Reinventing Fire found that an uncompromised, oil-free U.S. automobile fleet would cost $18 per saved barrel, rising to about $25 per barrel for all transpor­tation. That's manyfold cheaper than any source of oil Mann describes, yet he doesn't discuss efficient use or price. That's the big story: Like whale oil in the 1860s, oil has become uncompetitive even at low prices, long before becoming unavailable even at high prices.

This comparison doesn't even consider hidden or external costs. Just the economic and military costs of U.S. oil dependence, if paid at the pump rather than through taxes and reduced wealth, would triple the price of oil -- plus any costs to health, safety, environment, climate, global stability and development, or our nation's independence and reputation.

Climate risk alone makes it dangerous to burn most known oil and other fossil-fuel reserves (conventional and unconventional), so the more carbon-intensive and costly new fuel sources that Mann describes are even more unburnable. Ways to get more oil or gas we don't need, can't afford, and can't safely burn will hardly define the future of our energy mix.

A debate on the future of energy Read more

Mann's article contains many errors, starting with the article's title. Mann's featured methane hydrates yield natural gas, not "oil." Oil and gas differ sharply and are often not fungible. Mann oddly uses "petroleum" to mean both oil and gas, but to the U.S. Energy Information Administration and most authorities, petroleum is a liquid.

Mann states "a basic truth: Economic growth and energy use have marched in lock­step for generations." He supports this claim by a single comparison for the whole world (mixing developing with industrialized economies), for all forms of energy (diluting oil and gas with cheap coal and hydropower), during 1900-2000 (for nearly three-fourths of which real oil and gas prices were the lowest and most stable in history). Actually, Mann's "lockstep" broke with the first oil price shock 40 years ago. The U.S. used 62 percent less oil and gas per dollar of real GDP in 2012 than in 1973. When the U.S. last paid serious attention to oil, in 1977-85, oil used per dollar of GDP fell at an average rate of 5.2 percent per year. Today's oil-saving technologies are better and cheaper.

Mann says Germany is burning more coal and "steadily" emitting more carbon as it shifts to renewables. In fact, Germany's 2011-12 uptick in coal-fired power generation, offsetting pricier gas, is a blip on a solid downward trend. And despite econom­ic growth, German carbon emissions fell 2.8 percent in 2011; in 2012 they rose 1.6 percent due to a cold winter but fell after weather adjustment. Germany's greenhouse-gas emissions in 2012 were 25.5 percent below those of 1990, meeting its Kyoto obligation.

Mann asserts that "Although the cost of renewable energy is falling rapidly, it is not yet equivalent to the cost of energy from fossil fuels." In fact, new utility-scale solar power underbid efficient new gas-fired plants in California's spring 2011 auction; since then, solar got cheaper and gas costlier, with German solar systems averaging half the installed cost of U.S. ones. And new Windbelt wind farms in 2011-12 sold their output for for $25-40/MWh, averaging $32/MWh -- often competitive despite nonrenewable competitors' often larger subsidies, and without counting wind's value in hedging against volatile gas prices. Gas's price volatility, which efficiency and most renewables lack, also makes fracked gas cost about twice as much as commonly supposed, even if its roughly eight kinds of major risks and uncertainties are all satisfactorily resolved.

Most bizarre is Mann's claim that mostly-renewable electricity would cause brownouts and factory shutdowns (which he says Germany "is already facing") and require massive electrical storage and transcontinental transmission. He even says "many utility-energy engineers predict" that when "renewables supply 20 to 30 percent of all electricity, ... the system will no longer be able to balance supply and demand." Thanks to proven modern utility practice, none of that is true -- and far from our needing to burn more and more gas to bridge to a distant renewable future, renewables are quickly scaling well beyond his mythical limit.

Germany was 23 percent renewable-powered in 2012 (doubled in six years), with two states in 2011 at 45 percent and 58 percent, while German power reliability rose to the highest in the European Union. Denmark was 41 percent renewable-powered in 2012 (peaking at 80 percent); Portugal, 45 percent (peaking at 100 percent the previous year, and rising to 70 percent for the whole first quarter of 2013). Earlier this year, Spain briefly achieved 61 percent renewable power and Germany 70 percent, while Texas neared 30 percent wind power on some days and the U.S. utility Xcel reached 57 percent for an hour. And as for the future, California's 33-percent-renewable and Denmark's 50-percent-windpower goals for renewable power by 2020 are on track. Germany's 35-percent-renewable-power goal for 2020 is ahead of schedule, and eight countries' and 41 cities' 100-percent-renewable-power (or even -energy) goals look both practical and profitable.

Presented by

Amory B. Lovins is chief scientist at Rocky Mountain Institute and a member of the National Petroleum Council. In 2009, Time named him among the world's 100 most influential people, and Foreign Policy, among the top 100 global thinkers.  More

A Swedish engineering academician, honorary architect, and former Oxford don, he's written 31 books, taught at 10 universities, and received the Blue Planet, Volvo, Zayed, Onassis, Nissan, Shingo, and Mitchell Prizes, a MacArthur Fellowship, 11 honorary doctorates, and the "Alternative Nobel," Heinz, Lindbergh, National Design, and World Technology Awards.

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