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	<title>Financial Markets &#187; Energy</title>
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	<description>Random musings on global financial markets, technology, physics and geopolitics</description>
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		<title>Peter Huber on energy, carbon and the climate</title>
		<link>http://www.appapillai.com/blog/2009/04/21/peter-huber-on-energy-carbon-and-the-climate/</link>
		<comments>http://www.appapillai.com/blog/2009/04/21/peter-huber-on-energy-carbon-and-the-climate/#comments</comments>
		<pubDate>Tue, 21 Apr 2009 12:42:10 +0000</pubDate>
		<dc:creator>mano</dc:creator>
				<category><![CDATA[Energy]]></category>
		<category><![CDATA[carbon]]></category>
		<category><![CDATA[Huber]]></category>

		<guid isPermaLink="false">http://www.appapillai.com/blog/?p=872</guid>
		<description><![CDATA[PETER W. HUBER Bound to Burn Humanity will keep spewing carbon into the atmosphere, but good policy can help sink it back into the earth. TEUN VOETEN/SIPA Cheap coal, like that extracted from this Chinese mine, is essential to the developing world’s economic growth. Like medieval priests, today’s carbon brokers will sell you an indulgence [...]]]></description>
			<content:encoded><![CDATA[<div class="story_author">PETER W. HUBER</div>
<h3>Bound to Burn</h3>
<div class="story_dek">Humanity will keep spewing carbon into the atmosphere, but good policy can help sink it back into the earth.</div>
<div id="story_text">
<div class="story_img"><img src="http://city-journal.org/assets/images/19_2-ph.jpg" alt="Cheap coal, like that extracted from this Chinese mine, is essential to the developing world’s economic growth." /></p>
<div class="credit">TEUN VOETEN/SIPA</div>
<div class="caption">Cheap coal, like that extracted from this Chinese mine, is essential to the developing world’s economic growth.</div>
</div>
<p><span class="cap">L</span>ike medieval priests, today’s carbon brokers will sell you an indulgence that forgives your carbon sins. It will run you about $500 for 5 tons of forgiveness—about how much the typical American needs every year. Or about $2,000 a year for a typical four-person household. Your broker will spend the money on such things as reducing methane emissions from hog farms in Brazil.</p>
<p>But if you really want to make a difference, you must send a check large enough to forgive the carbon emitted by four poor Brazilian households, too—because they’re not going to do it themselves. To cover all five households, then, send $4,000. And you probably forgot to send in a check last year, and you might forget again in the future, so you’d best make it an even $40,000, to take care of a decade right now. If you decline to write your own check while insisting that to save the world we must ditch the carbon, you are just burdening your already sooty soul with another ton of self-righteous hypocrisy. And you can’t possibly afford what it will cost to forgive that.</p>
<p>If making carbon this personal seems rude, then think globally instead. During the presidential race, Barack Obama was heard to remark that he would bankrupt the coal industry. No one can doubt Washington’s power to bankrupt almost anything—in the United States. But China is adding 100 gigawatts of coal-fired electrical capacity a year. That’s another whole United States’ worth of coal consumption added every three years, with no stopping point in sight. Much of the rest of the developing world is on a similar path.</p>
<p>Cut to the chase. We rich people can’t stop the world’s 5 billion poor people from burning the couple of trillion tons of cheap carbon that they have within easy reach. We can’t even make any durable dent in global emissions—because emissions from the developing world are growing too fast, because the other 80 percent of humanity desperately needs cheap energy, and because we and they are now part of the same global economy. What we can do, if we’re foolish enough, is let carbon worries send our jobs and industries to their shores, making them grow even faster, and their carbon emissions faster still.</p>
<p><span class="cap">W</span>e don’t control the global supply of carbon.</p>
<p>Ten countries ruled by nasty people control 80 percent of the planet’s oil reserves—about 1 trillion barrels, currently worth about $40 trillion. If $40 trillion worth of gold were located where most of the oil is, one could only scoff at any suggestion that we might somehow persuade the nasty people to leave the wealth buried. They can lift most of their oil at a cost well under $10 a barrel. They will drill. They will pump. And they will find buyers. Oil is all they’ve got.</p>
<p>Poor countries all around the planet are sitting on a second, even bigger source of carbon—almost a trillion tons of cheap, easily accessible coal. They also control most of the planet’s third great carbon reservoir—the rain forests and soil. They will keep squeezing the carbon out of cheap coal, and cheap forest, and cheap soil, because that’s all they’ve got. Unless they can find something even cheaper. But they won’t—not any time in the foreseeable future.</p>
<p>We no longer control the demand for carbon, either. The 5 billion poor—the other 80 percent—are already the main problem, not us. Collectively, they emit 20 percent more greenhouse gas than we do. We burn a lot more carbon individually, but they have a lot more children. Their fecundity has eclipsed our gluttony, and the gap is now widening fast. China, not the United States, is now the planet’s largest emitter. Brazil, India, Indonesia, South Africa, and others are in hot pursuit. And these countries have all made it clear that they aren’t interested in spending what money they have on low-carb diets. It is idle to argue, as some have done, that global warming can be solved—decades hence—at a cost of 1 to 2 percent of the global economy. Eighty percent of the global population hasn’t signed on to pay more than 0 percent.</p>
<p>Accepting this last, self-evident fact, the Kyoto Protocol divides the world into two groups. The roughly 1.2 billion citizens of industrialized countries are expected to reduce their emissions. The other 5 billion—including both China and India, each of which is about as populous as the entire Organisation for Economic Co-operation and Development—aren’t. These numbers alone guarantee that humanity isn’t going to reduce global emissions at any point in the foreseeable future—unless it does it the old-fashioned way, by getting poorer. But the current recession won’t last forever, and the long-term trend is clear. Their populations and per-capita emissions are rising far faster than ours could fall under any remotely plausible carbon-reduction scheme.</p>
<p><span class="cap">M</span>ight we simply buy their cooperation? Various plans have circulated for having the rich pay the poor to stop burning down rain forests and to lower greenhouse-gas emissions from primitive agricultural practices. But taking control of what belongs to someone else ultimately means buying it. Over the long term, we would in effect have to buy up a large fraction of all the world’s forests, soil, coal, and oil—and then post guards to make sure that poor people didn’t sneak in and grab all the carbon anyway. Buying off people just doesn’t fly when they outnumber you four to one.</p>
<p>Might we instead manage to give the world something cheaper than carbon? The moon-shot law of economics says yes, of course we can. If we just put our minds to it, it will happen. Atom bomb, moon landing, ultracheap energy—all it takes is a triumph of political will.</p>
<p>Really? For the very poorest, this would mean beating the price of the free rain forest that they burn down to clear land to plant a subsistence crop. For the slightly less poor, it would mean beating the price of coal used to generate electricity at under 3 cents per kilowatt-hour.</p>
<p>And with one important exception, which we will return to shortly, no carbon-free fuel or technology comes remotely close to being able to do that. Fossil fuels are extremely cheap because geological forces happen to have created large deposits of these dense forms of energy in accessible places. Find a mountain of coal, and you can just shovel gargantuan amounts of energy into the boxcars.</p>
<p>Shoveling wind and sun is much, much harder. Windmills are now 50-story skyscrapers. Yet one windmill generates a piddling 2 to 3 megawatts. A jumbo jet needs 100 megawatts to get off the ground; Google is building 100-megawatt server farms. Meeting New York City’s total energy demand would require 13,000 of those skyscrapers spinning at top speed, which would require scattering about 50,000 of them across the state, to make sure that you always hit enough windy spots. To answer the howls of green protest that inevitably greet realistic engineering estimates like these, note that real-world systems must be able to meet peak, not average, demand; that reserve margins are essential; and that converting electric power into liquid or gaseous fuels to power the existing transportation and heating systems would entail substantial losses. What was Mayor Bloomberg thinking when he suggested that he might just tuck windmills into Manhattan? Such thoughts betray a deep ignorance about how difficult it is to get a lot of energy out of sources as thin and dilute as wind and sun.</p>
<p>It’s often suggested that technology improvements and mass production will sharply lower the cost of wind and solar. But engineers have pursued these technologies for decades, and while costs of some components have fallen, there is no serious prospect of costs plummeting and performance soaring as they have in our laptops and cell phones. When you replace conventional with renewable energy, everything gets bigger, not smaller—and bigger costs more, not less. Even if solar cells themselves were free, solar power would remain very expensive because of the huge structures and support systems required to extract large amounts of electricity from a source so weak that it takes hours to deliver a tan.</p>
<p>This is why the (few) greens ready to accept engineering and economic reality have suddenly emerged as avid proponents of nuclear power. In the aftermath of the Three Mile Island accident—which didn’t harm anyone, and wouldn’t even have damaged the reactor core if the operators had simply kept their hands off the switches and let the automatic safety systems do their job—ostensibly green antinuclear activists unwittingly boosted U.S. coal consumption by about 400 million tons per year. The United States would be in compliance with the Kyoto Protocol today if we could simply undo their handiwork and conjure back into existence the nuclear plants that were in the pipeline in nuclear power’s heyday. Nuclear power is fantastically compact, and—as America’s nuclear navy, several commercial U.S. operators, France, Japan, and a handful of other countries have convincingly established—it’s both safe and cheap wherever engineers are allowed to get on with it.</p>
<p>But getting on with it briskly is essential, because costs hinge on the huge, up-front capital investment in the power plant. Years of delay between the capital investment and when it starts earning a return are ruinous. Most of the developed world has made nuclear power unaffordable by surrounding it with a regulatory process so sluggish and unpredictable that no one will pour a couple of billion dollars into a new plant, for the good reason that no one knows when (or even if) the investment will be allowed to start making money.</p>
<p>And countries that don’t trust nuclear power on their own soil must hesitate to share the technology with countries where you never know who will be in charge next year, or what he might decide to do with his nuclear toys. So much for the possibility that cheap nuclear power might replace carbon-spewing sources of energy in the developing world. Moreover, even India and China, which have mastered nuclear technologies, are deploying far more new coal capacity.</p>
<p>Remember, finally, that most of the cost of carbon-based energy resides not in the fuels but in the gigantic infrastructure of furnaces, turbines, and engines. Those costs are sunk, which means that carbon-free alternatives—with their own huge, attendant, front-end capital costs—must be cheap enough to beat carbon fuels that already have their infrastructure in place. That won’t happen in our lifetimes.</p>
<p><span class="cap">A</span>nother argument commonly advanced is that getting over carbon will, nevertheless, be comparatively cheap, because it will get us over oil, too—which will impoverish our enemies and save us a bundle at the Pentagon and the Department of Homeland Security. But uranium aside, the most economical substitute for oil is, in fact, electricity generated with coal. Cheap coal-fired electricity has been, is, and will continue to be a substitute for oil, or a substitute for natural gas, which can in turn substitute for oil. By sharply boosting the cost of coal electricity, the war on carbon will make us more dependent on oil, not less.</p>
<p>The first place where coal displaces oil is in the electric power plant itself. When oil prices spiked in the early 1980s, U.S. utilities quickly switched to other fuels, with coal leading the pack; the coal-fired plants now being built in China, India, and other developing countries are displacing diesel generators. More power plants burning coal to produce cheap electricity can also mean less natural gas used to generate electricity. And less used for industrial, commercial, and residential heating, welding, and chemical processing, as these users switch to electrically powered alternatives. The gas that’s freed up this way can then substitute for diesel fuel in heavy trucks, delivery vehicles, and buses. And coal-fired electricity will eventually begin displacing gasoline, too, as soon as plug-in hybrid cars start recharging their batteries directly from the grid.</p>
<p>To top it all, using electricity generated in large part by coal to power our passenger cars would lower carbon emissions—even in Indiana, which generates 75 percent of its electricity with coal. Big power plants are so much more efficient than the gasoline engines in our cars that a plug-in hybrid car running on electricity supplied by Indiana’s current grid still ends up more carbon-frugal than comparable cars burning gasoline in a conventional engine under the hood. Old-guard energy types have been saying this for decades. In a major report released last March, the World Wildlife Fund finally concluded that they were right all along.</p>
<p>But true carbon zealots won’t settle for modest reductions in carbon emissions when fat targets beckon. They see coal-fired electricity as the dragon to slay first. Huge, stationary sources can’t run or hide, and the cost of doing without them doesn’t get rung up in plain view at the gas pump. California, Pennsylvania, and other greener-than-thou states have made flatlining electricity consumption the linchpin of their war on carbon. That is the one certain way to halt the displacement of foreign oil by cheap, domestic electricity.</p>
<p>The oil-coal economics come down to this. Per unit of energy delivered, coal costs about one-fifth as much as oil—but contains one-third more carbon. High carbon taxes (or tradable permits, or any other economic equivalent) sharply narrow the price gap between oil and the one fuel that can displace it worldwide, here and now. The oil nasties will celebrate the green war on carbon as enthusiastically as the coal industry celebrated the green war on uranium 30 years ago.</p>
<p><span class="cap">T</span>he other 5 billion are too poor to deny these economic realities. For them, the price to beat is 3-cent coal-fired electricity. China and India won’t trade 3-cent coal for 15-cent wind or 30-cent solar. As for us, if we embrace those economically frivolous alternatives on our own, we will certainly end up doing more harm than good.</p>
<p>By pouring money into anything-but-carbon fuels, we will lower demand for carbon, making it even cheaper for the rest of the world to buy and burn. The rest will use cheaper energy to accelerate their own economic growth. Jobs will go where energy is cheap, just as they go where labor is cheap. Manufacturing and heavy industry require a great deal of energy, and in a global economy, no competitor can survive while paying substantially more for an essential input. The carbon police acknowledge the problem and talk vaguely of using tariffs and such to address it. But carbon is far too deeply embedded in the global economy, and materials, goods, and services move and intermingle far too freely, for the customs agents to track.</p>
<p>Consider your next Google search. As noted in a recent article in <em>Harper’s</em>, “Google . . . and its rivals now head abroad for cheaper, often dirtier power.” Google itself (the “don’t be evil” company) is looking to set up one of its electrically voracious server farms at a site in Lithuania, “disingenuously described as being near a hydroelectric dam.” But Lithuania’s grid is 0.5 percent hydroelectric and 78 percent nuclear. Perhaps the company’s next huge farm will be “near” the Three Gorges Dam in China, built to generate over three times as much power as our own Grand Coulee Dam in Washington State. China will be happy to play along, while it quietly plugs another coal plant into its grid a few pylons down the line. All the while, of course, Google will maintain its low-energy headquarters in California, a state that often boasts of the wise regulatory policies—centered, one is told, on efficiency and conservation—that have made it such a frugal energy user. But in fact, sky-high prices have played the key role, curbing internal demand and propelling the flight from California of power plants, heavy industries, chip fabs, server farms, and much else (see “<a href="http://city-journal.org/2008/18_2_californias_environmentalism.html">California’s Potemkin Environmentalism</a>,” Spring 2008).</p>
<p>So the suggestion that we can lift ourselves out of the economic doldrums by spending lavishly on exceptionally expensive new sources of energy is absurd. “Green jobs” means Americans paying other Americans to chase carbon while the rest of the world builds new power plants and factories. And the environmental consequences of outsourcing jobs, industries, and carbon to developing countries are beyond dispute. They use energy far less efficiently than we do, and they remain almost completely oblivious to environmental impacts, just as we were in our own first century of industrialization. A massive transfer of carbon, industry, and jobs from us to them will raise carbon emissions, not lower them.</p>
<p><span class="cap">T</span>he grand theory for how the developed world can unilaterally save the planet seems to run like this. We buy time for the planet by rapidly slashing our own emissions. We do so by developing carbon-free alternatives even cheaper than carbon. The rest of the world will then quickly adopt these alternatives, leaving most of its trillion barrels of oil and trillion tons of coal safely buried, most of the rain forests standing, and most of the planet’s carbon-rich soil undisturbed. From end to end, however, this vision strains credulity.</p>
<p>Perhaps it’s the recognition of that inconvenient truth that has made the anti-carbon rhetoric increasingly apocalyptic. Coal trains have been analogized to boxcars headed for Auschwitz. There is talk of the extinction of all humanity. But then, we have heard such things before. It is indeed quite routine, in environmental discourse, to frame choices as involving potentially infinite costs on the green side of the ledger. If they really are infinite, no reasonable person can quibble about spending mere billions, or even trillions, on the dollar side, to dodge the apocalyptic bullet.</p>
<p>Thirty years ago, the case against nuclear power was framed as the “Zero-Infinity Dilemma.” The risks of a meltdown might be vanishingly small, but if it happened, the costs would be infinitely large, so we should forget about uranium. Computer models demonstrated that meltdowns were highly unlikely and that the costs of a meltdown, should one occur, would be manageable—but greens scoffed: huge computer models couldn’t be trusted. So we ended up burning much more coal. The software shoe is on the other foot now; the machines that said nukes wouldn’t melt now say that the ice caps will. Warming skeptics scoff in turn, and can quite plausibly argue that a planet is harder to model than a nuclear reactor. But that’s a detail. From a rhetorical perspective, any claim that the infinite, the apocalypse, or the Almighty supports your side of the argument shuts down all further discussion.</p>
<p>To judge by actions rather than words, however, few people and almost no national governments actually believe in the infinite rewards of exorcising carbon from economic life. Kyoto has hurt the anti-carbon mission far more than carbon zealots seem to grasp. It has proved only that with carbon, governments will say and sign anything—and then do less than nothing. The United States should steer well clear of such treaties because they are unenforceable, routinely ignored, and therefore worthless.</p>
<p><span class="cap">I</span>f we’re truly worried about carbon, we must instead approach it as if the emissions originated in an annual eruption of Mount Krakatoa. Don’t try to persuade the volcano to sign a treaty promising to stop. Focus instead on what might be done to protect and promote the planet’s carbon sinks—the systems that suck carbon back out of the air and bury it. Green plants currently pump 15 to 20 times as much carbon out of the atmosphere as humanity releases into it—that’s the pump that put all that carbon underground in the first place, millions of years ago. At present, almost all of that plant-captured carbon is released back into the atmosphere within a year or so by animal consumers. North America, however, is currently sinking almost two-thirds of its carbon emissions back into prairies and forests that were originally leveled in the 1800s but are now recovering. For the next 50 years or so, we should focus on promoting better land use and reforestation worldwide. Beyond that, weather and the oceans naturally sink about one-fifth of total fossil-fuel emissions. We should also investigate large-scale options for accelerating the process of ocean sequestration.</p>
<p>Carbon zealots despise carbon-sinking schemes because, they insist, nobody can be sure that the sunk carbon will stay sunk. Yet everything they propose hinges on the assumption that carbon already sunk by nature in what are now hugely valuable deposits of oil and coal can be kept sunk by treaty and imaginary cheaper-than-carbon alternatives. This, yet again, gets things backward. We certainly know how to improve agriculture to protect soil, and how to grow new trees, and how to maintain existing forests, and we can almost certainly learn how to mummify carbon and bury it back in the earth or the depths of the oceans, in ways that neither man nor nature will disturb. It’s keeping nature’s black gold sequestered from humanity that’s impossible.</p>
<p>If we do need to do something serious about carbon, the sequestration of carbon after it’s burned is the one approach that accepts the growth of carbon emissions as an inescapable fact of the twenty-first century. And it’s the one approach that the rest of the world can embrace, too, here and now, because it begins with improving land use, which can lead directly and quickly to greater prosperity. If, on the other hand, we persist in building green bridges to nowhere, we will make things worse, not better. Good intentions aren’t enough. Turned into ineffectual action, they can cost the earth and accelerate its ruin at the same time.</p>
<p><em>Peter Huber is a Manhattan Institute senior fellow and the coauthor, most recently, of </em>The Bottomless Well<em>. His article develops arguments that he made in an Intelligence Squared U.S. debate in January.</em></div>
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		<title>Peter Huber : The Million-Volt Answer to Oil</title>
		<link>http://www.appapillai.com/blog/2009/02/15/peter-huber-the-million-volt-answer-to-oil/</link>
		<comments>http://www.appapillai.com/blog/2009/02/15/peter-huber-the-million-volt-answer-to-oil/#comments</comments>
		<pubDate>Sun, 15 Feb 2009 22:08:38 +0000</pubDate>
		<dc:creator>mano</dc:creator>
				<category><![CDATA[Energy]]></category>
		<category><![CDATA[electricity]]></category>
		<category><![CDATA[Huber]]></category>

		<guid isPermaLink="false">http://www.appapillai.com/blog/?p=719</guid>
		<description><![CDATA[Another top-level view from Peter Huber. Executive Summary Electricity—not oil—is the heart of the U.S. energy economy. Power plants consume as much raw energy as oil delivers to all our cars, trucks, planes, homes, factories, offices, and chemical plants. Because big power plants operate very efficiently, they also deliver much more useful power than car [...]]]></description>
			<content:encoded><![CDATA[<p>Another top-level view from Peter Huber.</p>
<h3>Executive Summary</h3>
<p align="justify">Electricity—not oil—is the heart of the U.S. energy economy. Power plants consume as much raw energy as oil delivers to all our cars, trucks, planes, homes, factories, offices, and chemical plants. Because big power plants operate very efficiently, they also deliver much more useful power than car engines and small furnaces. Electricity is comparatively cheap, we have abundant supplies and reliable access to the fuels we use to generate it, and the development of wind, solar, and other renewables will only expand our homegrown options. Our capital-intensive, technology-rich electrical infrastructure also keeps getting smarter and more efficient. With electricity, America controls its own destiny.</p>
<p align="justify">From the beginning, electricity has progressively displaced other forms of energy where factories, offices, and ordinary people end up using it day to day. Electrification has been propelled not by government mandates or subsidies but by normal market forces and rapid innovation in technologies that turn electricity into heat and motion. Over 60 percent of our GDP now comes from industries and services that run on electricity, and over 85 percent of the growth in U.S. energy demand since 1980 has been supplied by electricity. And the electrification of the U.S. economy isn’t over. Electrically powered heaters, microwave systems, and lasers outperform oil- and gas-fired ovens in manufacturing and industrial applications, and with the advent of plug-in hybrids, electricity is now poised to begin squeezing oil out of the transportation sector.</p>
<p align="justify">While power plants operate very efficiently from an engineering perspective, the electricity market could operate much more efficiently than it currently does. Across the country, peak wholesale prices vary by 1 to 3 cents per kilowatt-hour. On average, over the course of an entire year, about half of the total capacity available nationwide stands idle. And over the course of the same year, one-fifth of the electricity is generated with very expensive fuel.</p>
<p align="justify">These problems are the result of highly variable demand. Enough power plants have to be built to meet peak loads, but the peaks move from east to west with the sun, because they track human activity and the weather. Where the cheapest power is available and the expensive power is being bought shifts in tandem. Wide spreads in the price of electricity available at different points in the country at almost every minute of the day reflect huge economic opportunity still waiting to be captured.</p>
<p align="justify">A backbone grid built with state-of-the-art high-voltage technology and spanning the continent could readily move 25 percent of America’s power over very long distances, at a cost well under 0.5 cents per kilowatt-hour moved. Overlaid on the existing, fragmented system, a backbone grid will let cheap power chase high demand around the clock and across the country. It will squeeze significantly more electricity out of every dollar of invested capital and every dollar spent on raw fuel. The economic benefits can be shared at both ends of the line, whichever way the power moves. And the savings that a backbone grid delivers will only increase as environmental costs are progressively folded into the economic spreadsheets.</p>
<p>The U.S. grid is the most ubiquitous and advanced energy delivery network in the country and on the planet. Building out a backbone grid—a financially modest undertaking for an industry as large as the power industry already is—will unleash innovation and competition on both the supply side and the demand side of our energy market. To get over $4 gas, we should let American capital, labor, and know-how get on with what they already do so well, and connect us to the 4-cent electricity.</p>
<p>Read the whole peice <a href="http://www.appapillai.com/blog/HuberElectricity2008.pdf" target="_blank">here.</a></p>
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		<title>Energy Boondoggles</title>
		<link>http://www.appapillai.com/blog/2008/11/16/energy-boondoggles/</link>
		<comments>http://www.appapillai.com/blog/2008/11/16/energy-boondoggles/#comments</comments>
		<pubDate>Sun, 16 Nov 2008 15:50:57 +0000</pubDate>
		<dc:creator>mano</dc:creator>
				<category><![CDATA[Energy]]></category>

		<guid isPermaLink="false">http://www.appapillai.com/blog/?p=448</guid>
		<description><![CDATA[A replay ? Energy &#38; Genius A Brief History of Energy Boondoggles Daniel Fisher 11.24.08, 12:00 AM ET  Forbes.com The U.S. Department of Energy has spent $57.5 billion over the past 30 years researching and developing clean energy technologies. In all that time the nation&#8217;s energy portfolio has barely budged. Fossil fuel as a share of [...]]]></description>
			<content:encoded><![CDATA[<p>A replay ?</p>
<p>Energy &amp; Genius<br />
<strong>A Brief History of Energy Boondoggles</strong><br />
Daniel Fisher 11.24.08, 12:00 AM ET  Forbes.com</p>
<p>The U.S. Department of Energy has spent $57.5 billion over the past 30 years researching and developing clean energy technologies. In all that time the nation&#8217;s energy portfolio has barely budged. Fossil fuel as a share of our energy supply has fallen from 93% in 1973 to 85% today. Almost all of that drop is attributable to the growth of nuclear power. Oil still fuels 97% of transportation. Renewables like wind, solar and hydropower account for 7% of total energy consumption.</p>
<p>The public-sector response shows a picture of a panic followed by a very long, contrite hangover. Outlays for federal energy R&amp;D in 1978 hit $6 billion (in today&#8217;s money). Once the oil panic of the 1970s ebbed and prices fell, Washington reversed course almost overnight and federal energy research dried up, hitting a low of $505 million in 1998. A lot of private money dried up with it. Synfuel plants collected rust.</p>
<p>Now we&#8217;re back in full swing with public and private investment in alternative energy research and generation. Federal outlays are above $1 billion to fund science projects, some of them based on shaky scientific and logistical assumptions. With the recent collapse in oil and gas prices undercutting some of the economics of alternatives, it may be useful to remember how this scenario has played out in the past.</p>
<p>In the Mojave Desert near Daggett, Calif. the Department of Energy poured $147 million into Solar One, a plant that concentrated solar energy from 2,000 mirrors onto a 300-foot concrete tower to make steam. It began operating in 1982 and was converted in 1995 to heat 3.4 million pounds of salt to a liquid state. DOE officials called the plant &#8220;a resounding success&#8221; when partner Southern California Edison shut it down in 1999 for the usual reason: It wasn&#8217;t commercially viable.</p>
<p>Great Plains Synfuels was the biggest single project under President Carter&#8217;s proposed $19 billion Synthetic Fuels Corp. This coal-gasification plant in Beulah, N.D. was completed in 1985 with $1.5 billion in federal loan guarantees and went bust that same year. The government took over, sold it to a private operator with rights to a share of the profits and (by at least one federal estimate made when oil was $23 a barrel) will recoup the subsidy (sans interest) by the end of this decade.</p>
<p>Jojoba plantations sprang up in the Sonoran Desert of Arizona and California in the 1970s. The plant was a source of lubricant that could substitute for outlawed sperm-whale oil. Biofuel fans promoted the waxy substance as a wonder fuel additive. Doctors and dentists who poured money into the schemes learned that the only people making money were the promoters.</p>
<p>In the mid-1980s taxpayers sank $78 million into a New Iberia, La. ethanol plant built by Saudi arms dealer Adnan Khashoggi&#8217;s Triad America. The plant never opened, Khashoggi&#8217;s company went bankrupt in 1987 and the site is a sugarcane field pocked with rusting equipment.</p>
<p>After the energy shocks of the 1970s, Congress offered $1.9 billion in loan guarantees to Tosco, Unocal and others to convert oil-bearing shale rock into some kind of fuel. Unocal closed its breakdown-plagued, $650 million plant in Parachute Creek, Colo. in 1991 after it failed to make money even with $114 million in federal subsidies. The $1.1 billion Tosco project was not completed and never got a subsidy.</p>
<p>In January, after spending $30 million on design work, the DOE pulled out of a utility consortium called FutureGen that was to build a coal-gasification plant near Mattoon, Ill. The plant would have cost $1.8 billion.</p>
<p>Government subsidizers are undaunted. Now the feds plan to guarantee up to $8 billion in loans for new clean-coal and green energy projects.</p>
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		<title>Solar research supported US Dept of Energy</title>
		<link>http://www.appapillai.com/blog/2008/04/29/solar-reasearch-supported-us-dept-of-energy/</link>
		<comments>http://www.appapillai.com/blog/2008/04/29/solar-reasearch-supported-us-dept-of-energy/#comments</comments>
		<pubDate>Tue, 29 Apr 2008 12:48:55 +0000</pubDate>
		<dc:creator>mano</dc:creator>
				<category><![CDATA[Energy]]></category>
		<category><![CDATA[research]]></category>
		<category><![CDATA[solar]]></category>

		<guid isPermaLink="false">http://www.appapillai.com/blog/?p=69</guid>
		<description><![CDATA[U.S. Department of Energy to Invest up to $13.7 Million for Breakthrough Solar Energy Projects 11 Projects selected from universities across the country WASHINGTON, DC &#8211; The U.S. Department of Energy (DOE) today announced that DOE will invest up to $13.7 million, over three years (Fiscal Years 2008 – 2010), for 11 university-led projects that [...]]]></description>
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<p>&#8211;>An illustration of the many initiatives put in place by the <a href="http://www.doe.gov/news/6071.htm" target="_blank">US Dept of Energy </a>to promote solar energy research: </p>
<blockquote><p>March 12, 2008</p>
<p><!--END Item Date --><span class="verdana11bluebold18line"><!--BEGIN Item Title -->U.S. Department of Energy to Invest up to $13.7 Million for Breakthrough Solar Energy Projects</span><!-- END Item Title --><br />
<span class="verdana11grey15line"><em>11 Projects selected from universities across the country</em></span></p>
<p><strong>WASHINGTON, DC</strong> &#8211; The U.S. Department of Energy (DOE) today announced that DOE will invest up to $13.7 million, over three years (Fiscal Years 2008 – 2010), for 11 university-led projects that will focus on developing advanced solar photovoltaic (PV) technology manufacturing processes and products.  These projects are integral to President Bush’s Solar America Initiative, which aims to make solar energy cost-competitive with conventional forms of electricity by 2015.  Increasing the use of solar energy is also critical to diversifying our nation’s energy sources in an effort to reduce greenhouse gas emissions and dependence on foreign oil.  Combined with a minimum university and industry cost share of 20%, up to $17.4 million will be invested in these projects.</p>
<p>“Harnessing the natural and abundant power of the sun and more cost-effectively converting it into energy has enormous potential to help reduce greenhouse gas emissions and provide greater stability in electricity costs,” DOE Assistant Secretary for Energy Efficiency and Renewable Energy Alexander Karsner said.  “These projects will not only bolster innovation in photovoltaic technology, but they will help meet the President’s goal of making clean and renewable solar power commercially viable by 2015.”</p>
<p>Universities selected for these projects will leverage fundamental understanding of materials and PV devices to help industry partners advance manufacturing processes and products.  These projects have the potential to significantly reduce the cost of electricity produced by PV from current levels of $0.18-$0.23 per Kilowatt hour (kWh) to $0.05 &#8211; $0.10 per kWh by 2015 – a price that is competitive in markets nationwide.  Each university will work closely with an industry partner to ensure the projects retain a commercialization focus and that results are quickly transitioned into market ready-products and manufacturing processes.  Additionally, students will be exposed to diverse PV-related commercialization efforts, enhancing workforce development in an effort to increase competitiveness and retain qualified scientists in the growing domestic PV research and development industry.</p>
<p>Photovoltaic-based solar cells convert sunlight directly into electricity, and are made of semiconductor materials similar to those used in computer chips.  When sunlight is absorbed by these materials, the solar energy knocks electrons loose from their atoms, allowing the electrons to flow through the material to produce electricity.  The process of converting light to electricity is called the photovoltaic effect.</p>
<p>Projects were selected in response to DOE’s June 20, 2007, Funding Opportunity Announcement  – University Photovoltaic Process and Product Development Support &#8211; which seeks to strengthen university involvement in the rapidly growing PV industry.  Negotiations between selected applicants and DOE will begin immediately to determine final project plans and funding levels.  Funding is subject to appropriations from Congress.  Selected projects include:</p>
<p><strong>Arizona State University (Tempe, AZ) with SolFocus and Soliant Energy</strong>: <em>Reliability Evaluation of Concentrator Photovoltaics per IEC Qualification Specifications</em>.  The recent boom in concentrating PVs has created a significant backlog of products waiting to undergo IEC product testing.  This project will focus on reducing bottlenecks of the qualification test such as environmental chamber testing while enhancing scheduling and coordination with industry to significantly increase testing throughput and efficiency.  DOE will provide up to $625,304 for this approximately $800,000 project.</p>
<p><strong>California Institute of Technology (Pasadena, CA) with Spectrolab</strong>: 100 <em>millimeter (mm) Engineered InP on Si Laminate Substrates for InP based Multijunction Solar Cells</em>.  Indium Phosphide (InP) is a very desirable substrate to form multijunction solar cells upon but is cost prohibitive even for high performance cells.  This project aims to reduce InP layer thickness by a factor of ten by bonding a thin layer of InP to an inexpensive silicon laminate substrate enabling a cost-effective, scaleable InP-based multijunction cell process.  In turn, this will open a new design space for high efficiency multijunction solar cells.  DOE will provide up to $837,000 for this approximately $1 million project.</p>
<p><strong>Georgia Institute of Technology (Atlanta, GA) with Sixtron</strong>: <em>Rear Contact Technologies for Next- Generation High-Efficiency Commercial Silicon Solar Cells</em>.  Performance-enhancing cell processing techniques are well established in the silicon industry but most are associated with higher processing costs, which may not be justified by the marginal increase in efficiency.  This project will develop enhanced, cost-effective back surface passivation, light trapping, and inkjet-printed back contacts, to yield a complete, low-cost, cell process which produces 17-20% efficient devices that are ready for direct commercialization.  DOE will provide up to $1.5 million for this approximately $1.9 million project.</p>
<p><strong>Massachusetts Institute of Technology (Cambridge, MA) with CaliSolar, Inc. and BP Solar, Inc:</strong> <em>Defect Engineering, Cell Processing, and Modeling for High-Performance, Low-Cost Crystalline Silicon Photovoltaics</em>.  This project will characterize defects and engineer their distribution within a solar cell to close the efficiency gap between industrial multicrystalline and high-efficiency monocrystalline silicon cells, while preserving the cost advantage of these low-cost, high–volume substrates. The project is targeting 18-22% efficient cells at manufacturing costs of less than $1 per peak watt.  DOE will provide up to $1.5 million for this approximately $1.9 million project.</p>
<p><strong>North Carolina State University (Raleigh, NC) with Spectrolab</strong>: <em>Tunable Narrow Bandgap Absorbers for Ultra High Efficiency Multijunction Solar Cells</em>.  Conversion efficiency of multijunction cells can be increased by balancing each layer’s responsiveness to the sun’s broad spectrum and by matching the current produced by each layer.  This project will pursue both of these improvements by developing and optimizing a 1-1.5 electron volt, graded strain subcell layer and then integrating this layer into Spectrolab’s triple junction stack to produce a four-junction solar cell.  This project is targeting a world record efficiency of 45%.  DOE will provide up to $1,147,468 for this approximately $1.4 million project.</p>
<p><strong>Pennsylvania State University (University Park, PA) with Honeywell</strong>: <em>Organic Semiconductor Heterojunction Solar Cells for Efficient, Low-Cost, Large Area Scalable Solar Energy Conversion</em>.  Organic solar cells hold promise to drastically lower costs but currently have low conversion efficiencies due to drawbacks in the structure of the junction interface.  This project will focus on using highly ordered, high-surface area titanium dioxide nanotube arrays in combination with organic semiconductors to fabricate low-cost solar cells with efficiencies of greater than 7%.  DOE will provide up to $1,231,843 for this approximately $1.5 million project.</p>
<p><strong>University of Delaware Institute of Energy Conversion (Newark, DE) with Dow Corning</strong>: <em>Development of a Low-Cost Insulated Foil Substrate for CIGS Photovoltaics</em>.  Currently, direct formation of flexible Copper Indium Gallium Selenium (CIGS) modules is limited by the lack of an inexpensive substrate capable of withstanding the high processing temperatures required to produce quality films.  This project will address this limitation by targeting development of a low-cost stainless steel flexible substrate coated with silicone-based resin dielectric and module processes applicable across a variety of roll-to-roll CIGS manufacturing techniques.  The project will target devices based on this substrate with efficiencies greater than 12%.  DOE will provide up to $1,478,331 for this approximately $1.85 million project.</p>
<p><strong>University of Delaware (Newark, DE) with SunPower</strong>: <em>High Efficiency Back Contact Silicon Heterojunction Solar Cells</em>.  This project will deposit amorphous silicon (a-Si) films on crystalline cells to enhance the electrical properties and enable low-temperature processing.  Metal contacts will be moved to the back of the cell to increase the amount of light entering the cell and increase conversion efficiencies beyond 26%.  DOE will provide up to $1,494,736 for this approximately $1.9 million project.</p>
<p><strong>University of Florida (Gainesville FL) with Global Solar Energy Inc., International Solar Electric Technology Inc., Nanosolar Inc., and Solyndra Inc:</strong> <em>Routes for Rapid Synthesis of CIGS Absorbers</em>.  This project will develop predictive models that quantitatively describe the formation of CIGS films under different processing conditions.  These models can be used to develop optimal processing recipes which will reduce processing time and identify scaling issues for commercial manufacturing.  The project is targeting a CIGS synthesis time of less than two minutes.  DOE will provide up to $599,556 for this approximately $800,000 project.</p>
<p><strong>University of Toledo (Toledo, OH) with Calyxo USA, Inc:</strong> <em>Improved Atmospheric Vapor Pressure Deposition to Produce Thin CdTe Absorber Layers</em>.  Record cadmium telluride (CdTe) thin film devices utilize an 8-micrometer (µm) thick CdTe layer but duplication of this structure in commercial manufacturing increases material costs and deposition time.  This project will reduce the CdTe layer thickness to approximately 1-µm while targeting a 10% module efficiency.  Improvements to contacts, uniformity, and monolithic integration will also be achieved.  DOE will provide up to $1,164,174 for this approximately $1.7 million project.</p>
<p><strong>University of Toledo (Toledo, OH) with Xunlight</strong>: <em>High-Rate Fabrication of a-Si-Based Thin-Film Solar Cells Using Large-area VHF PECVD</em>.  Reducing processing costs of amorphous silicon modules has proven difficult because increasing process throughput of conventional deposition processes results in lower device efficiency.  This project aims to retain high efficiencies while fabricating high efficiency amorphous silicon and nanocrystalline silicon solar cells at high rates.  The project will target 10% conversion efficiency for amorphous silicon/nano crystalline silicon (a-Si/nc-Si) solar cells.  DOE will provide up to $1,442,266 for this approximately $1.9 million project.</p>
<p>Learn more about President Bush’s <a href="http://www1.eere.energy.gov/solar/solar_america/">Solar America Initiative</a>.</p>
<p><span class="verdana11bluebold18line"><!--END Item Body Text --><!--BEGIN Item Contact Info -->Media contact(s):</span><br />
Tom Welch, (202) 586-4940</p></blockquote>
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		<title>Chicago and Financial Innovation</title>
		<link>http://www.appapillai.com/blog/2008/04/08/chicago-and-financial-innovation/</link>
		<comments>http://www.appapillai.com/blog/2008/04/08/chicago-and-financial-innovation/#comments</comments>
		<pubDate>Tue, 08 Apr 2008 13:13:45 +0000</pubDate>
		<dc:creator>mano</dc:creator>
				<category><![CDATA[Exchanges]]></category>
		<category><![CDATA[Markets]]></category>
		<category><![CDATA[Chicago]]></category>
		<category><![CDATA[Climate Change]]></category>
		<category><![CDATA[CME]]></category>
		<category><![CDATA[Energy]]></category>

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		<description><![CDATA[Much of the innovation in exchanges and derivatives has come from Chicago &#8211; not New York or London. Once best known for derivatives in farm products &#8211; cattle, hogs etc. _ Chicago leads the rest of the world in innovating and dominating in the trading of derivative products(options, futures, commodities etc), symbolised by the emergence of the Chicago [...]]]></description>
			<content:encoded><![CDATA[<p>Much of the innovation in exchanges and derivatives has come from Chicago &#8211; not New York or London. Once best known for derivatives in farm products &#8211; cattle, hogs etc. _ Chicago leads the rest of the world in innovating and dominating in the trading of derivative products(options, futures, commodities etc), symbolised by the emergence of the Chicago Mercantile Exchange(CME) as the &#8216;hottest exchange&#8217; in the world.</p>
<p>From the <a href="http://www.chicagotribune.com/news/chi-0405edit1apr05,0,3379974.story">Chicago Tribune </a>:</p>
<blockquote><p>Chicago&#8217;s success can be attributed in part to something economists call New Growth Theory—new work comes from innovation. Unlike labor or capital, which are fixed goods, innovation and ideas cannot be used up. As awareness of new ideas spreads, they lead to economic growth.</p>
<p>One good example: Chicago&#8217;s futures markets. In the early 1970s the Chicago Mercantile Exchange began to trade derivatives—financial assets that derive their value from other assets. Leo Melamed, the chairman of the CME at the time, realized that a floating dollar would create uncertainties and businessmen would want to hedge this risk. The result: creation of the International Money Market, the world&#8217;s first financial futures exchange, which traded on the future price of the dollar. A few years later the <a title="Chicago Board of Trade" href="http://www.appapillai.com/topic/economy-business-finance/chicago-board-of-trade-PLCUL000131.topic">Chicago Board of Trade</a> began to trade treasury-bond futures. Today, more than 85 percent of the world&#8217;s derivatives are traded with the exchanges of the CME Group. The hog butcher to the world, it&#8217;s been said, has become the world&#8217;s risk manager.</p>
<p>This has spun other economic growth. The trade in futures products created more need for financial and legal services, which created more jobs.</p>
<p>And Chicago&#8217;s markets keep innovating. The Chicago Climate Exchange is becoming the place to trade carbon emissions in the U.S. This city is poised to be a major center in the business of environmental protection.<br />
<a href="http://www.appapillai/blog/wp-admin"></a></p></blockquote>
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