From Stanford University comes another head exploder for Joe Romm.![]()
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IMAGE: In the fast-globalizing clean-energy industry, the US should press its advantage in engineering, high-value manufacturing, installation and finance, writes Stanford researcher Jeffrey Ball.
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America’s approach to clean energy needs to be reformed if it is to meaningfully affect energy security or the environment, according to two new articles by Stanford writers.
The debate over how to fundamentally change the world’s massive energy system comes amid taxpayers’ $500 million tab for the bankruptcy of Fremont, Calif., solar company Solyndra, the global recession, government budget cuts and plunging U.S. prices for natural gas. Making the change cost-effectively will be crucial, write Jeffrey Ball and Kassia Yanosek, both based at Stanford University’s Steyer-Taylor Center for Energy Policy and Finance.
Ball, scholar-in-residence at the Stanford center and former energy reporter and environment editor for the Wall Street Journal, writes in the current edition of Foreign Affairs that the world’s renewable-energy push has been sloppy so far. It can be fixed through a new approach that forces these technologies to become more economically efficient, he writes in the article, “Tough Love for Renewable Energy.”
“It is time to push harder for renewable power, but to push in a smarter way,” Ball writes.
Kassia Yanosek, entrepreneur-in-residence at the Stanford center and a private-equity investor, writes in Daedalus, the journal of the American Academy of Arts and Sciences, that attempting to accelerate a transition to a low-carbon economy is expensive and risky. Policymakers, says Yanosek, need to realize that achieving a transition with government-aided commercialization programs will require putting billions of taxpayer dollars at risk, often in a high-profile way.
“If government officials wish to accelerate the next energy transition, they will need a different strategy to develop an industry that can survive without major subsidies, one that prioritizes funding to commercialize decarbonized energy technologies that can compete dollar-for-dollar against carbon-based energy,” Yanosek said.
With natural gas prices so low due to huge new supplies of shale gas, besting the current energy system has become tougher.
Reinvention, not rejection
Ball writes that governments and investors have spent big money on renewable power, slashing the cost of many renewable technologies and creating jobs. And yet, he notes, modern renewables remain a very small percentage of the global energy mix.
“Wind and solar power will never reach the scale necessary to make a difference to national security or the environment unless they can be produced economically,” he writes. “The objective is not wind turbines or solar panels. It is an affordable, convenient, secure, and sustainable stream of electrons.”
Taken together, the analyses by Ball and Yanosek argue for driving down the costs of key technologies and speeding up their deployment, said Dan Reicher, the executive director of the Steyer-Taylor Center, launched a little more than a year ago at Stanford Law School and the Stanford Graduate School of Business.
“This will require the right mix of targeted government policy and hard-nosed private sector investment,” said Reicher, also a Stanford law professor and business school lecturer, and formerly an assistant U.S. energy secretary and private-equity investor.
Ball, in Foreign Affairs, writes that rationalizing “the conflicting patchwork of energy subsidies that has been stitched together over the decades” is essential. Supporters of renewable energy point out that public subsidies for these technologies are a fraction of those for fossil fuels, both globally and in the United States. Realistically, Ball figures, subsidies should be examined not just in total dollar amounts, but also per unit of energy produced. This more apples-to-apples comparison would help foster an honest debate about which subsidies best promote the type of energy system countries want.
Also key to America pursuing clean energy in the most economically efficient way is for the country to exploit globalization rather than fight it, Ball writes. Despite mounting trade-war tensions with China over wind and solar power, he writes: “If the goal of the renewable-power push is a cleaner, more diversified power supply, then low-cost solar equipment, from China or anywhere else, is a good thing.”
In the fast-globalizing clean-energy industry, Ball writes, the United States should press its advantage in engineering, high-value manufacturing, installation and finance. “Much of the machinery used in Chinese solar-panel factories today is made in America,” he writes. Installation remains a domestic business, and the U.S. financial system allows homeowners to install rooftop solar panels at no upfront cost. Ball notes that two other energy shifts will be at least as important as renewable sources: cleaning up the process of burning of fossil fuels, which provide most of the world’s energy; and using energy from all sources more efficiently.
Nevertheless, Ball writes, America’s renewable-energy tax credits need to be changed. He and Yanosek agree the current credits have contributed to an inefficient, boom-and-bust approach to renewable energy.
Yanosek writes that smarter government polices could help innovative technologies overcome what she describes as the main financial barrier – the “commercialization gap.” To do this, though, politicians and taxpayers must realize that government efforts to help accelerate an energy transition will require massive and risky investments, she says. A project like building a next-generation nuclear power station or a new type of utility-scale solar thermal plant can require hundreds of millions, or even billions, of dollars.
The commercialization gap
After developers show that new technologies can work in prototype, they often cannot get the backing of traditional investors to build the first commercial project because the risk/return profile is not attractive to private investors, writes Yanosek, who invests in the energy sector at Quadrant Management. Such projects require more money than venture capital investors are willing to bet. But, says Yanosek, the risks of failure in such first-time projects are too great for private equity funds or corporate balance sheets.
If policymakers decide that funding commercialization is a priority, Yanosek’s article provides a roadmap for government support. First, limited public dollars would be best spent moving a bunch of promising new technologies to the next stage.
That leads to Yanosek’s next rule of the road: Government clean energy technologies must not become hostage to stimulus spending and job creation objectives. The legitimate beneficiaries of commercialization-gap support are promising but unproven technologies with no steady revenue stream. They have the potential for cutting prices, but by nature are not likely to ramp up employment significantly until after they have successfully crossed the commercialization gap.
Loan guarantees in many cases are not the best structure for funding companies that push the boundaries of cost and efficiency, Yanosek argues. Instead, the government should invest equity and thus profit proportionately when a beneficiary succeeds, setting up a revenue stream for continued funding. The funding body, furthermore, should take advantage of private-sector expertise and maintain independence from the Department of Energy, where awards can be slow in coming and may be politicized.
Ultimately, Yanosek says, policymakers and taxpayers must embrace the incremental advances and understand that there will be failures along the way. For government to push an energy transition faster than the historical pace, it cannot remove the steps, but only hope to take them more quickly.
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“Instead, the government should invest equity and thus profit proportionately when a beneficiary succeeds, setting up a revenue stream for continued funding.”
Unfortunately, the US government has no equity, only debt.
The disadvantage of both wind and solar is that they are intermittent. How about alternatives to burning plants? Imagine a modest pile of hay a cow eats in a day. How far would a car run on that fuel? We need “digestive” fuel cells. Any combustion is horribly inefficient.
Oh. My. God. They want to double down. With OUR money!
Cheapest way to “push harder for renewable power:”
STOP TEARING DOWN THE DAMN DAMS!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
The die hard proponents of wind and solar are not even slightly concerned with economics. Their goal is complete conversion, regardless of the social or economic cost. Excluding the rent seekers and corporate cronies, these folks see fossil fuels as an existential threat to the planet. Cost is therefore not an issue.
The sucess skeptics are having now is due in part to the failure of the environmental left to make even a slightly believable case for economic sense. Unfortunately, when the economy recovers we may lose this advantage.
“It can be fixed through a new approach that forces these technologies to become more economically efficient, he writes in the article, “Tough Love for Renewable Energy.””
The key word, of course, is ‘forces’. Without force this whole house of cards is a teetering economic calamity. Come to think of it, it would be WITH force as well. Next!
curious george says:
May 2, 2012 at 10:48 am
The disadvantage of both wind and solar is that they are intermittent. How about alternatives to burning plants? Imagine a modest pile of hay a cow eats in a day. How far would a car run on that fuel? We need “digestive” fuel cells. Any combustion is horribly inefficient.
I hope you’re kidding, but did not see a “/sarchasm” appended to your remarks. There is almost NO “real” energy in hay.
Before fossil fuels were used, before steel and iron were smelted and processed by anything larger than hand forges and hand bellows – thus, beginning the era of railroads, we had horses (hay-fed!) and feet. (Oxen (castrated bulls) were stronger, but even slower.)
A healthy man can walk (near continuously) at 3 miles per hour. Towns were 25 to 30 miles aprt on level ground BECAUSE 30 miles was the furthest you can travel in ONE day. (If water was available near the road, and if you were carrying (at most) a backpack or single bag. Horses are slightly faster (4 to 6 mph), but then you must feed and house and care for the horse. And pay for it of course. Horses/mules pulling carts? Slightly faster than oxen, but about the same as a man walking.
To get from St Louis to Oregon? Start in late April or early May. Arrive before October, or you spend the winter trapped in the mountains, eating your dead.
Plan on taking only one wagon load, or just about the capacity of one SUV.
“Wind and solar power will never reach the scale necessary to make a difference to national security or the environment unless they can be produced economically,” he writes. “The objective is not wind turbines or solar panels. It is an affordable, convenient, secure, and sustainable stream of electrons.”
They hit the nail on the there and then back away from the obvious conclusion that neither wind nor solar can be produced economically and neither wind nor solar can produce without backups. They aren’t affordable, convenient, or secure. They may be “sustainable” but I’ve never been quite sure what that means.
“Ball, in Foreign Affairs, writes that rationalizing “the conflicting patchwork of energy subsidies that has been stitched together over the decades” is essential. Supporters of renewable energy point out that public subsidies for these technologies are a fraction of those for fossil fuels, both globally and in the United States. ”
A lie.
Well, that was a load of….. nothing. A purely political polemic. No substance. No solutions. No answer as to HOW. Just a load of “this is the course we must set” B.S.
OK makes sense. ‘Let’s get away from combustion as the powerhouse of the world.’ I agree. ‘Don’t let’s force it too fast.’ Great idea. ‘Let it develop on its own time’ OK. ‘Let the market drive it so it becomes competitive.’ On and on ad nauseum.
This is what truckers used to refer to as hauling Volkswagon radiators (in the days when the old Beetle was the only VW – and they didn’t HAVE radiators).
“America’s approach to clean energy needs to be reformed if it is to meaningfully affect energy security or the environment, according to two new articles by Stanford writers”
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How about just providing energy at reasonable prices?
From your title it would be easy to draw the conclusion that developing alternative energy facilities is not a great idea. But the authors of this study are, in fact, arguing for an even greater use of these technologies. To support this effort they propose policy adjustments such as diminishing support for fossil fuel energy systems and increasing support for the newer, less polluting, technologies. They contend that we should be prepared to buy our cheaper solar panels, (for example) from the Chinese, or wherever they are built. It should also be noted that the economics of developing alternative, nonpolluting technologies will be enhanced when we tax carbon.
My chickens have tiny brains but even they understand the situation surrounding energy security and natural gas…………..cheep,cheep,cheep!
Old wine, new bottle.
The biggest problem is the huge subsidies for fighting WARs !!!
How does this conflict with Joe Romm’s general positions aside from being pro-nuclear (where Joe is in the minority)?
Perhaps someone could post links to the Foreign Affairs and Daedalus articles. Both sound interesting.
Taphonomic says:
May 2, 2012 at 11:05 am
“They may be “sustainable” but I’ve never been quite sure what that means.”
It means, with generational turnover, we can always find new lemmings to subsidize loser technologies. Or, in the immortal words of P.T. Barnum, a sucker is born every minute.
Quicker version, let’s just pile up a bunch of money and set it on fire, at least that will keep us warm for a little while.
Jeffrey Ball, please list public subsidies to the fossil fuel industry. In other words, name those instances where tax-payer dollars are actually going to those industries. Do not include tax breaks in which a company merely does not pay a tax on a profit, or gets a lower tax rate, or gets to write off actual costs in the year they are incurred, or gets to write off expenses faster. Also, do not include tax credits where a company only gets actual taxes due reduced. Foregoing taxes on profits and allowing the expensing of costs are not subsidies. I repeat, only name those instances where real money goes to the company from the tax-payer.
Jay Davis
Steven Chu runs a big money giveaway program like a lot of other Federal money truck programs that are clearly designed to throw money in many directions in direct opposition to anything approaching strategy or goal attainment. It amazes me how political policy of energy programs is confused by casual observers as anything meaningful. It is 100 percent show and spread politics with no real thought given to outcomes, industries, or relative chance for success. It is the opposite of due dilligence for good reason and those agencies that pretend to perform due dilligence are wasting more money. The incompetence of the program designs largely confirm that they really don’t care about anything more than appearances.
I think the list of oil company subsidies is located the same place as all those oil company checks the “Deniers” are getting… in fetid liberal wet dreams.
All the Dollars we give to the Chinese for solar panels they will use to build coal plants.
If China gave solar panels away, solar would still be uneconomical. The costs of installation and maintenance (including cleaning) are and will continue to be the stumbling blocks, and when the panels reach the end of their 25-year life (each year of which they fall in solar efficiency), and free replacement solar panels are installed, they will still be uneconomical. If you need one unit of solar power, you must install the capacity to produce ten. Half the time (called night) there is no production; half of daytime there is low and intermittent production because of low sun angle; when you reach the sweet spot of midday there may be vastly reduced production because of weather, or because you happen to be in the hemisphere not favored by the Sun for half of each year.
For wind, if you need one unit of electrical power you must install the capacity to produce five, and since you don’t know when and how much power you will get, you must provide 100% spinning back-up (mirroring generating capacity using natural gas turbines) and/or even more expensive, continuously accessible storage able to mirror power fluctuations and provide total replacement when the wind stops.
Improved technology will not make the Sun shine brighter or the winds blow stronger and more reliably. Solar efficiency is abysmal and could be improved, but installation and maintenance won’t disappear, and we’ll still be stuck with day and night and seasonal variation. Plus with both solar and wind there would be enormous damage and long recovery periods if they are struck by powerful earthquakes or storms.
Continued exploitation of fossil fuels – China loves our coal, and India soon will, and we’re fracking enough oil and gas to last many more lifetimes – plus applying our “advantage in engineering, high-value manufacturing, installation and finance” to nuclear will get us to advances in power production that can never be attained from solar and wind. China and India have already taken this route and are investing heavily into research to meet their future enormous energy needs through Liquid Fluoride Thorium Reactor (LFTR) technologies. The US should too, since we developed and tested LFTR successfully over sixty years ago.
Lawrence Livermore Labs are developing SSTAR (small, sealed, transportable, autonomous reactor) http://en.wikipedia.org/wiki/SSTAR that can be installed in neighborhoods (set and forget) and replaced every thirty years. This unit would be even more effective if paired with LFTR.
The future is here, and it isn’t wind, solar, or biomass.
As long as there is no effort by the government to develop LFTR technology I will know without doubt that all the money spent on wind and solar is nothing more than a giant boondoggle.
For nonrenewables, 200+ years of coal, 100-140 of gas, nuke takes 1 million years to become nonradioactive. Solar and wind are intermittant. Add in the 3-4 year per battery set and the solar means 6-8 battery systems with one set of panels. The greenies never figure in battery costs or disposable into their warm and fuzzy feelings about renewables. We clean up coal and it is still the longterm supplier of power. Do not confuse oil with energy for electrons because there are virtually no oil/diesel generators out there except for backup power. Don’t forget oil shale we have at least 100 years of that also.