By Harry {doc} Babad, © Copyright 2011, All Rights Reserved.


Note, many of the technologies I share are in various stage of first, development, and are often far from being a commercial success. Their inventors and supporters still have to prove that they are reliable, durable and scalable, Remember There Ain’t No free Lunch and silver bullets too often turn to lead.

When and if you Google them in depth, you will find studies saying they are capable of being commercialized and often as many other studies that are more skeptical because there is no easy way to for them into our systems.

I always, as 75 year old cynic, find it appropriate, to step back as I read and WIIFT – No it’s not something new to smoke; just the compulsion to ask what’s in it for them. It’s okay to have a hidden agenda, but agenda’s too hidden discomfort me. In addition, most have no relationship to solving the problem that is being bragged about.

I know, perhaps even truly believe, is this. For green energy related items, if we put a simple price (tax) on carbon (greenhouse gases) and gave out no subsidies, these new technologies would have a better chance to blossom. With American ingenuity, Indian and Chinese too, thousands more ideas would come out of innovators’ garages. America still has the best innovation culture in the world. But we need better policies to nurture it, better infrastructure to enable it and more open doors to bring others here to try it.

Remember, conditions, both technical and geopolitical continuously change – So if you’ve made up your mind about either the best way to go, or about its all a conspiracy, move on to the next article in our blog. Today’s favorite is tomorrow unintended consequence. However, that’s better than sticking one’s head in the sand or believing in perpetual motion. Remember, there’s no free lunch and as a taxpayer and consumer you must always end up paying the piper!

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Titles, As Usual, in No Formal Order, for the New Snippets and Topics

  • Abu Dhabi Plans to Go Nuclear — The UAE capital, undaunted by Fukushima, says it will proceed with plans for a civilian reactor
  • Climate Benefits of Natural Gas May Be Overstated
  • Vertical Farming in the Windy City and Elsewhere
  • Food vs. Fuel, Redux: The Biofuel Dilemma
  • Electric Motors — Nikola Tesla’s Revenge
  • Rocks on The Menu — Mineral-munching bugs to extract metals
  • Climate Change – It’s Complicated, But It’s Real
  • Would You Buy A $40 Light Bulb and Other Lighting Options
  • The Thorium Fuel Cycle is Catching On
  • QUOTE de Mois — Correlation is NOT Necessarily Causation

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Abu Dhabi Plans to Go Nuclear

— The UAE capital, undaunted by Fukushima, says it will proceed with plans for a civilian reactor

Even as radiation leaks from crippled plants at Fukushima,  countries from China to the Middle East are forging ahead with nuclear power. On Mar. 28, Abu Dhabi confirmed it would proceed with plans for a civilian reactor despite the Japan disaster. “It’s a technology we should bring to the region,” said Abdulla Saif al-Nuaimi, director general of Abu Dhabi Water & Electricity Authority, at the Arabian Power & Water Summit. Nuclear generation remains the most realistic option, says Jarmo Kotilaine, chief economist at National Commercial Bank in Saudi Arabia: “It’s cost competitive, addresses some of the environmental risks involved in burning crude, and can be built on a large scale.”

Power demand in Abu Dhabi is rising at about 10 percent a year, and nuclear energy is necessary to help make up for a lack of natural gas to burn in new generators, says al-Nuaimi: “With a shortage of natural gas here, we need to find other ways to produce power.” Plans are for a reactor to be operational in 2017.

Efforts to increase power from sources such as solar energy aren’t likely to be sufficient to meet demand. The sheikdom wants to generate about 7 percent of its power from renewable energy by 2020. That would require 1,500 megawatts from projects such as wind and solar plants, says Bruce Smith, an adviser to the Abu Dhabi Water & Electricity Authority.

The bottom line: Far from backing away from nuclear power, Abu Dhabi plans to build its first civilian nuclear plant to meet rising energy demand.

Folks, this is about power for the people (homes) industry, desalinization, and of course ultimately electric cars… read the rest of the article.

Anthony DiPaola, Bloomberg Business Week, March 31, 2011.

PS: 6 More Arab States Announce Plans To Go Nuclear. The countries involved were named by the International Atomic Energy Agency (IAEA) as Algeria, Egypt, Morocco and Saudi Arabia. Tunisia and the UAE have also shown interest…

Nuclear momentum accelerates in MENA [Middle East and North Africa], Nuclear Industry Insight, 11 August 2011

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Climate Benefits of Natural Gas May Be Overstated

Pro Publica Fracking Background Introduction

The country’s push to find clean domestic energy has zeroed in on natural gas, but cases of water contamination have raised serious questions about the primary drilling method being used. Vast deposits of natural gas, large enough to supply the country for decades, have brought a drilling boom stretching across 31 states. The drilling technique being used, called hydraulic fracturing, shoots water, sand and toxic chemicals into the ground to break up rock and release the gas. The Environmental Protection Agency has declared the process to be safe, but water contamination has been reported in more than a thousand places where drilling is happening. Gas companies, exempt from federal laws protecting water supplies, may conceal the identities of their chemicals as trade secrets, making it difficult to determine the cause of contamination.

The EPA is now conducting a deeper study of the drilling, New York State has blocked drilling in New York City’s watershed, and lawmakers are pushing for closer oversight of the industry. The industry — in the form of millions of dollars spent on lobbying, a slew of court cases, and a robust public relations campaign — is pushing back.


Abstracted From Abrahm Lustgarten’s Article

The United States is poised to bet its energy future on natural gas as a clean, plentiful fuel that can supplant coal and oil. But new research by the Environmental Protection Agency—and a growing understanding of the pollution associated with the full “life cycle” of gas production—is casting doubt on the assumption that gas offers a quick and easy solution to climate change.

Advocates for natural gas routinely assert that it produces 50 percent less greenhouse gases than coal and is a significant step toward a greener energy future. But those assumptions are based on emissions from the tailpipe or smokestack and don’t account for the methane and other pollution emitted when gas is extracted and piped to power plants and other customers.

The EPA’s new analysis doubles its previous estimates for the amount of methane gas that leaks from loose pipe fittings and is vented from gas wells, drastically changing the picture of the nation’s emissions that the agency painted as recently as April. Calculations for some gas-field emissions jumped by several hundred percent. Methane levels from the hydraulic fracturing of shale gas were 9,000 times higher than previously reported.

There’s a whole lot more information on fracking and the potential of environmental damage vs the use of home ‘drilled’ nominally low cost hydrocarbons with the lowest potential greenhouse emissions. The detailed reader comments are also information full, I call them to your attention.

By Abrahm LustgartenPro Publica, Jan. 25, 2011


A Few Interesting Fracking Related References

Keep in mind there’s a wart on fracking fact sheets, but until the peer reviewed R&T and characterization is done, both side are shooting PR loaded blanks and media pyrotechnics. Doc!

Hydraulic Fracturing, Wikipedia, 2011

Hydraulic Fracturing 101, Earthworks, an Environmental Blog,Undated but ca. 2006

Greenhouse Gas Emissions Reporting from the Petroleum and Natural Gas Industry – The latest emissions tally from the EPA (November 2010)

Baffled About Fracking? You’re Not Alone, By Mike Soraghan of Greenwire Published: May 13, 2011; Source — The New York Times

About Hydraulic Fracturing  – Facts by Chesapeake Energy Company, April 2011

Inventory of U.S. Greenhouse Gas Emissions and Sinks – An April 2010 EPA greenhouse gas report, now outdated

Preliminary Assessment of the Greenhouse Gas Emissions from Natural Gas Obtained by Hydraulic Fracturing – Cornell University

Comparative Life-Cycle Air Emissions of Coal, Domestic Natural Gas, LNG, and SNG for Electricity Generation – Paulina Jaramillo, Carnegie Mellon University

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Vertical Farming in the Windy City and Elsewhere

 Vertical farming is a concept that argues that it is economically and environmentally viable to cultivate plant or animal life within skyscrapers, or on vertically inclined surfaces. Despite contemporary notions of vertical faming, there is a long history of ‘vertical farming’ that can be divided into three categories. Check out the Wikipedia article for more background information.

Doc sez, this is sort of a left hand take on Robert Heinlein’s teen-readers book, “Farmer in the Sky” which was doomed because space became an unfocused virtual frontier rather than a goal for mankind. The current concepts of vertical farming seem more appropriate to our times. Reality, alas, populations grow become urbanized, farmland gets destroyed by population growth and climate changes or just plain natural forces become more destructive. Vertical (upwards) growth in urban populations is a fact – Megacroplis’ are on their way… It’s either urban sprawl or up in the wide blue yonder’. Therefore, they appear much more relevant to urban ecology and living modes.

A WAG scenario — New York City as a breadbasket of the East Coast — How? I suggest that the combination of vertical farming, nuclear powered water desalination, and all combustible residues be converted to biodiesel and electricity for car.  It would take a combination of a Bloomberg a Bill Gates and T. Boone Pickens to kick start this, although it might be faster if done in the Middle East, say by Abu Dhabi.

In Chicago’s meatpacking district, developer John Edel  hopes to reinvent the urban food supply with a $4 million, four-story indoor produce and fish farm called The Plant. Edel and his colleagues have already planted 3,000 square feet of hydroponically grown lettuce and other greens and installed 1,400 tilapia fish in tanks.

The fish farm and gardens are connected by a 9,000-gallon water circulation system: Wastewater from the tilapia tanks, rich in nitrogen-based nutrients, flows into the hydroponic beds, where it irrigates and fertilizes the lettuce. The crop roots then filter that water before it returns to the fish. Edel and student collaborators at the Illinois Institute of Technology are also building a custom-designed digester that will turn the project’s leftover vegetable and fish waste into fertilizer and biogas to power a heating, cooling, and 280-kilowatt electrical system. The Plant will offer its first bounty for sale this fall, supplying greens, mushrooms, and tilapia to farmers’ markets and local restaurants.

The Plant is part of a growing push to bring farms into metropolitan areas. Small-scale, multilevel farms have sprung up in Britain and Wisconsin, and an organization called Growing Power hopes to break ground on a five-story project in Milwaukee within 18 months. Such efforts make fresh food more accessible to inner-city residents and could help to reduce the cost and energy of shipping produce. According to an analysis from Iowa State University, conventional produce travels about 1,500 miles on average to its destination, causing the release of 5 to 17 times more carbon dioxide than food from regional and local farms.

Stan Cox, a plant-breeding researcher at the Land Institute in Kansas, points out that while leafy vegetables grow fairly well indoors, staples like wheat and corn require far more light energy. But Columbia University ecologist Dickson Despommier says large-scale projects can still have a big impact: He calculates that a 50-story building occupying one New York City block could feed 50,000 people.

By Christina Couch, for Discover Magazine, May 2011.


Other Related References

 Vertical farming, Wikipedia, 2011

Vertical Farming Studies in El Paso By BRYAN WALSH Thursday, Dec. 11, 2008, TIME Magazine.

Vertical Farming – Does it really stack up? The Economist, Print Edition, December 9, 2010.

Growing Skyscrapers: The Rise of Vertical Farms, By Dickson Despommier for Scientific American. November 16, 2009.

Can Urban Agriculture Feed a Hungry World? By Fabian Kretschmer and Malte E. Kollenberg, The Spiegel Online, July 22, 2011.

Vertical Farming — Advantages – Disadvantages – Barriers, Climate Lab Wiki, 2010.

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Food vs. Fuel, Redux: The Biofuel Dilemma


A Straight Paste – No ad-libs, just (err) food for Thought The references are click through if you want more to stratify your curiosity cravings. – Doc.


Today’s Washington Post includes a noteworthy opinion piece from Tim Searchinger of Princeton University concerning the impact of expanding biofuel production on global food prices and availability. Food vs. fuel competition made headlines in 2007 and 2008 but then subsided during the recession and financial crisis. This year, with global crop yields down and food demand up, and with food-derived biofuel production at record levels, the issue has returned. The relationship between biofuel output and food prices is certainly complex, but it is significant, particularly for those who spend much of their incomes on unprocessed grains and vegetable oils. And both population and biofuels demand will continue to increase from today’s levels.

You might recall Mr. Searchinger’s name in conjunction with a high-profile scientific paper in 2008 casting doubt on the value of crop-based biofuels in reducing greenhouse gas emissions. “Global land use impact” entered the lexicon of environmental consequences as a result of his and his collaborators’ work, and it had a significant influence on the EPA’s updated Renewable Fuel Standard (RFS) regulation, even if the agency’s final version of the rule softened its application in constraining the least efficient corn ethanol facilities. So you might say that Mr. Searchinger is no great friend of first-generation biofuels in general. However, the issue that he’s writing about today, while no less controversial in energy and policy circles, is much more straightforward to understand than the carbon debt of newly cultivated cropland.

As he notes in his op-ed, numerous studies have demonstrated a link between biofuel production and food prices in 2007-8, even in the US, where the basic inputs subject to this kind of price competition constitute a small portion of the retail prices of the processed foods we eat. It affects US food price inflation, but mainly indirectly through routes such as raising the price of livestock feed. Among others, the Congressional Budget Office looked at this issue in 2009. Most of the studies I saw also showed a significant effect on food prices from rising energy prices, another phenomenon that has reappeared in the last year. However one interprets all this, it is inescapable that a bushel of corn turned into ethanol is not available for export to countries that are experiencing a combination of rising demand and disappointing harvests.

As long as US harvests were increasing at a rate that  kept pace with the growth of ethanol output, thanks to increased cultivation and better yields, that wasn’t a zero sum game. Until recently, the corn that went into making ethanol was corn that might not otherwise have been grown. But in a year like this one, when annual ethanol consumption set to rise by another billion gallons while the corn harvest is 5% smaller than the previous year’s, something has to give. In fact, the US Department of Agriculture expects that ethanol plants will take 40% of this season’s crop, compared to just 23% in the 2007-8 “market year.” That exerts a lot more pressure on corn prices, which are pushing $7 per bushel for the first time since 2008.

If anything, the conclusion of Mr. Searchinger’s op-ed downplayed the risks ahead. With output from the nascent cellulosic ethanol industry still minuscule, the EPA will be under tremendous pressure to allow corn ethanol to continue to expand beyond its current 15 billion gallon per year limit under the RFS. That’s one reason the industry was pushing so hard to increase the maximum allowable percentage of ethanol in gasoline from 10% to 15%; it needs that headroom to continue expanding output beyond last year’s 13 billion gallons. At 20 billion gallons per year–a quantity that I heard one USDA expert suggest several years ago was achievable–ethanol would require the equivalent of 55% of 2009-10’s record US corn crop. It’s hard to envision that happening without concerns about food vs. fuel rising to a much higher pitch.

Posted February 11, 2011 by Geoffrey Styles for the Energy Collective Blog

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 Electric Motors — Nikola Tesla’s Revenge

  — The car industry’s effort to reduce its dependence on rare-earth elements has prompted a revival

 ONCE again, worrywarts are wringing their hands over possible shortages of so-called “critical materials” crucial for high-tech industries. In America the Department of Energy is fretting about materials used to manufacture wind turbines, electric vehicles, solar cells and energy-efficient lighting. The substances in question include a bunch of rare-earth metals and a few other elements, which—used a pinch here, a pinch there—enhance the way many industrial materials function.

It is not as though the rare-earth elements—scandium, yttrium and lanthanum plus the 14 so-called lanthanides—are all that rare. Some are as abundant as nickel, copper or zinc. Even the two rarest (thulium and lutetium) are more abundant in the Earth’s crust than gold or platinum.

A decade ago America was the world’s largest producer of rare-earth metals. But its huge open-cast mine at Mountain Pass, California, closed in 2002—a victim mainly of China’s drastically lower labor costs. Today, China produces 95% of the world’s supply of rare-earth metals, and has started limiting exports to keep the country’s own high-tech industries supplied.

The rare-earth element that other industrial countries worry about most is neodymium. It is the key ingredient of super-strong permanent magnets. Over the past year the price of neodymium has quadrupled as electric motors that use permanent magnets instead of electromagnetic windings have gained even wider acceptance. Cheaper, smaller and more powerful, permanent-magnet motors and generators have made modern wind turbines and electric vehicles viable.

That said, not all makers of electric cars have rushed to embrace permanent-magnet motors. The Tesla Roadster, an electric sports car based on a Lotus Elise, uses no rare-earth metals whatsoever. Nor does the Mini-E, an electric version of BMW’s reinvention of the iconic 1960s car. Meanwhile, the company that pioneered much of today’s electric vehicle technology, AC Propulsion of San Dimas, California, has steered clear of permanent-magnet motors.

Clearly, a number of manufacturers think  the risk of relying on a single source of rare-earth metals is too high.

Read on about Toyota’s efforts to replace rare earths in it’s electric motors and the re-discovery of tech ology invented by Nicolas Tesla an American inventor, back in 1888. Check out Tesla’s own automobile A Tesla Engine Drive Piece Arrow. In addition the article also discussed the topic “Who needs a gearbox” in an electric car.

The Economist, Technology Quarterly, Jun 2nd 2011.

Tesla Roadster, Wikipedia 2011

Tesla Electric Car, Wikipedia 2011

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 Rocks On The Menu

— High commodity prices have encouraged the use of mineral-munching bugs to extract metals from waste or low-grade ore.


Bioleaching is the extraction of specific metals from  their ores through the use of living organisms. This is much cleaner than the traditional heap leaching using cyanide. Bioleaching is one of several applications within biohydrometallurgy and several methods are used to recover copper, zinc, lead, arsenic, antimony, nickel, molybdenum, gold, silver, and cobalt.

EVEN the sleekest gadget depends on the mucky business of digging stuff out of the ground. Mobile phones and computers use copper for their wiring and rely on cobalt, germanium, lithium, nickel, platinum and tantalum for other components. Electric motors need magnets made of “rare earth” elements such as neodymium. But rising metal prices and China’s tightening grip on supplies of rare-earth elements (it accounts for 97% of production) have heightened the appeal of finding other sources of supply. The result is growing interest in the use of rock-eating bacteria to extract metals from low-grade ores, mining waste or industrial effluent.

Rock-eating bacteria such as Acidithiobacillus and Leptospirillum are naturally occurring organisms that thrive in nasty, acidic environments. They obtain energy from chemical reactions with sulfides, and can thus accelerate the breakdown of minerals. Base metals such as iron, copper, zinc and cobalt occur widely as sulfides, and more valuable metals such as gold and uranium are also present in the same bodies of ore. With a little help from the mineral-munchers, these metals can be released in a process called bioleaching.

This approach has its pros and cons. To recover large quantities of metals quickly from ores with a high metal content, smelting remains the most profitable route. Bioleaching is slower, but it is also cheaper, making it well suited for treating ores and mining wastes with low metal concentrations. It is also generally cleaner. Material containing poisonous elements such as arsenic is unsuitable for smelting because of the risk of pollution.

For many years bioleaching has been used to recover gold from ores that are hard to break down using heat treatment (known as “roasting”). The bacteria are set to work in huge stirred tanks, called bioreactors, containing ground-up rocks and dilute sulfuric acid. The bacteria change one form of iron found within the ore (ferrous iron) to another (ferric iron) and tap the energy released. In acidic solutions ferric iron is a powerful oxidizing agent. It breaks down sulfide minerals and releases any associated metals.                       …

Interest in bioleaching shows no sign of abating. As part of a European project called ProMine, geologists are mapping Europe’s mineral resources to a depth of 5km (3.1 miles) in an effort to stimulate the mining industry and reduce dependence on imports. Integral to the project is further development of biological metal-recovery methods. In Europe, at least, mineral-munching microbes can expect long-term employment—and lunch.

Read on — There’s Lot’s more!

Bioleaching References

Bioleaching, Wikipedia 2011.

What is Bioleaching — A tutorial, Talvivaara Publications. May 6, 2010.

Bioleaching technology in minerals processing, By John Neale, BioMine Wiki, September 2006

What is Bioleaching? – Includes mechanisms – InovateUS Blog, 2011.

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Climate Change – It’s Complicated, But It’s Real


So, the engineers at GPS mission control need to use Einstein’s relativistic theories to make sure your iPhone tells you precisely where you are, whenever you want to know. Similarly, neither Newton’s or Einstein’s equations allow scientists to properly predict the subatomic interactions within the electronics of satellites or iPhones. For that, you need to reference the weird world of quantum mechanics.

Each of these model systems – Newtonian, Einsteinian  and Quantum physics – produces some contradictory predictions, and gaps in understanding remain. The theories have not yet been unified, for instance, to the lament of Einstein and his successors.

Yet the vast majority of us – the average Joe and Josephine Public – are not confused or worried about GPS and iPhones, for the simple matter that we don’t try too hard to understand how they work. After all, it’s plain enough to our eyes, immediately and incontrovertibly, that they do! So we just accept it, like we do for most forms of technology.

Climate science is now treated rather differently, however. This is because although the stochastic and chaotic systems involved are, in their own way, just as complex as relativity and quantum theory, many people just don’t want to take the underpinning science and evidence for granted.

They WANT to know and understand this stuff (which is good, from a science education perspective), and their motivation usually comes about because they feel threatened by it, or guilty about it, or whatever. Dylan’s example of not wanting to be responsible for suffering poor people underscores the point.

Yet, at its core, much of the math, physics, chemistry, models, theory, and so on, which together make up the many fields of climate science, can be really difficult stuff. It takes a lot of learning time, and lots exposure to the many lines of scientific evidence and the general practice of doing science and dealing with uncertainty, to appreciate the complexities and nuances involved.

So when people don’t ‘get’ the science and are left confused by media sound bites, it’s typically because they haven’t got the time, experience or training to really grasp the interconnections, feedbacks and apparent contradictions.

The other obvious problem is that climate model forecasts are not tangible and deterministic – unlike the GPS or iPhone, there is no simple, repeatable test of whether they ‘work’ or not. Climate change is also not being painted on a ‘blank canvas’ – extreme weather has always been with us, for instance, so how to tell what can be attributed to natural versus human-caused effects?

It’s tough, no doubt about it, and there is a huge scientific effort dedicated to identifying the ‘fingerprints’ of human activity amongst the many ‘smudges’ caused by ever present natural influences on weather and climate. There’s more – click trough

Well we can always do the ostrich thing, or we can at least insist that our decision makers demonstrate a competency in the scientific method, and understand science is grey, and each new set of data changes our knowledge base. Our and their jobs are to do no evil (they Hippocratic oath), and be protective — Katrina and the Gulf Spill did not need to happen, and 8if you buy land in a flood plain w/o insurance tough — We neither evolved in a welfare state or a wimp-fare state, mankind kind got where they are now be out toughing nature, and all their enemies.

Article by Barry Brook, The Energy Collective, Posted February 12, 2011.

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Would You Buy A $40 Light Bulb and Other Lighting Options


Now don’t think I’m biased against politicians, trying to stem energy use growth, here and abroad. After all there are the folks who deny climate change, manmade or not, while sea levels rise and weather, for now and predicted for the next half-decade, worsens. They also gave us a 15% corn ethanol limit despite auto manufactures plea that that would corrode engines and lower overall fuel efficiency. It also continues raise food prices without doing much, if anything about green house gasses. Another case of WIIFT.

However, life would be so much simpler if a carbon tax, for light bulbs as a low risk example, were implemented.  Tax these by wattage, assigned to all new light bulbs sold starting in 2012 or 2013; obviously much lower for  not to compact fluorescents, LEDs or other low energy alternatives.

The tax rate should be gradated say starting at 10-15% per bulb and rising to the prohibitive level in ca 10 years, increasing the way auto efficiency standards do. This would allow the industry to accommodate the change, allow individuals an alternative on what lights they want to use and how energy efficient. As I’ll share in the next column, the Scandinavian Countries have effectively started doing so, with none of the awful consequences preached by our technically undereducated lobbyist bought, politicians.

Furthermore, The US Government’s aim to ‘outlaw {aka phase out} incandescent bulbs, starting with 100 Watt models in 2012 and they will be mostly gone by 2014, will just create a black market. It’s done so for every other government introduced PROHIBITION around the world.

I’ve wondered whether once Europe and perhaps China adopt more stringent green house gas rules, perhaps by adopting a workable, a gradually imposed and flexible carbon tax, whether they could impose a VAT on US products? None of my economist-international scholar friends know how the Europeans (e.g., Court of Justice of the European Free Trade Association States) would deal with America exporting pollution, albeit indirectly?

Now the rest of the story…

Would You Buy A $40 Light Bulb?

Maybe you should.

This week, Philips Lighting said that its Ambient LED 12.5 watt bulb  — which, just to confuse you, is also sold under the Philips Endura LED brand — has qualified for an EPA’s Energy Star rating. That means that it’s an efficient and, quite possibly cost-effective alternative to the 60-watt bulb, even with a $39.97 list price at Home Depot. <No price listed for yet… jest you all wait!>

Here’s how the math works, at least according to Philips: A conventional 60-watt bulb lasts about 1,000 hours, uses 60 watts of electricity (duh) and costs $180 to run for 25,000 hours. The LED equivalent lasts 25,000 hours (nearly three years if you left it on 24/7), uses 12.5 watts and costs $37.50 to run for 25,000 hours.

That assumes electricity costs of 12.5 cents/kwh, slightly higher than average across the US but a lot less that you pay in high-cost states like California. Practically a bargain, no? {Doc Sez Perhaps?}

The Energy Star rating matters because it means that the bulb, which is evidently the first LED bulb in its category to qualify, can earn you a rebate from your local utility. There’s more on the rebates here from the U.S. Department of Energy. Each state has its own rebate program, forms to fill out, etc. Fun. Better news is that for now Phillips is offering a $10 cash rebate on the bulb.

There’s more — it’s not a silver bullet, but this makes it easier to see the light and lower overall energy costs.

Posted February 15, 2011 by Marc Gunther for The Energy Collective

Once-Scorned C. F. L. Light Bulbs Are Advancing

–It’s amazing how technology improves given an incentive, and profit has always been a better stick, in America, than regulation, when it is written intelligently. No WIIFT!

In my Pragmatist column in Thursday’s Home section, I describe the latest advancements in energy-efficient light bulbs in response to the Energy Independence and Security Act of 2007, part of which takes effect next January. Much of that discussion focuses on so-called C.F.L.’s, or compact fluorescent light bulbs. While they have improved in recent years, the technology continues to be hampered by worries about its environmental impact in landfills because C.F.L.’s contain mercury.

Environmentally minded consumers who hope to shave a few dollars from their electric bills by using C.F.L.’s can take solace in the fact that some groups consider C.F.L.’s greener than the bulbs they replace. In 2008, for instance, the Natural Resources Defense Council published a paper suggesting that C.F.L.’s do less environmental harm than standard incandescent bulbs.

For example, C.F.L.’s require one-quarter the energy from coal-fired power plants that incandescents do, the council wrote. If all consumers changed to C.F.L.’s, the group argued, those plants would send less pollution into the air. The council’s paper cites research by the Northeast Waste Management Officials’ Association into toxic waste levels from C.F.L.’s.

If you choose to buy fluorescents, you’ll still need to dispose of your old C.F.L.’s properly when they die or break. Home Depot and Lowe’s both accept C.F.L.’s for recycling, and you can find more information about disposal locations, among other topics, here.

Safety, of course, is another issue, since light bulbs are so easy to break. The amount of mercury contained in a C.F.L. is roughly equivalent to the amount of ink on the tip of a ballpoint pen and about one-fifth the amount in a watch battery, the council’s paper says. But the bulbs can leak mercury vapor when broken, so ventilation is important when cleaning a broken bulb, the council says in its paper. Some manufacturers now produce C.F.L.’s with protective coating; the EcoSmart Shatter-Resistant C.F.L. is one example.

By Bob Tedeschi, For The New York Times, August 11, 2011

The New Law — “The End Of The Light Bulb As We Know It” By Marianne Lavelle, For US News And World Report December 19, 2007

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Thorium Fuel Cycle

In the beginning… India got it, now China is getting on board

All of a sudden the pro nuclear professional media is asking the question  “Thorium: the miracle cure for a new nuclear backbone? … And in case anyone asks, both Uranium and Thorium are Naturally-Occurring Radioactive Materials (NORM)

“You can run a civilization on thorium for hundreds of thousands of years, and it’s essentially free,” says Kirk Sorensen, former NASA engineer and one of today’s forward looking nuclear technologists. This week we look at the progress that has been made in developing thorium-based nuclear reactors, global stores, and why China and India believe this ‘miracle metal’ could be the next best thing.

Thorium versus Uranium — A tonne of thorium – the slow-decaying, slightly radioactive metal – produces as much energy as 200 tonnes of uranium, or 3,500,000 tonnes of coal. Besides being much cheaper, thorium is three times more abundant than uranium, so much that miners treat it as a nuisance. After all it is a radioactive by-product when they are digging up rare earth metals.

Unlike uranium, thorium is a low-carbon metal, and although not fissionable, it can be used as a nuclear fuel through breeding to fissile uranium-233 (U-233). Thorium decays its own hazardous waste and can expel the plutonium left by uranium reactors. Also, thorium cannot melt down and does not produce reliable fuel for bombs.

Both uranium and thorium are mined as ore and then detached from the rock, but thorium is four times more prevalent in Earth’s crust than uranium.

“Thorium has the potential to be the backbone of our energy future, and we need to move quickly towards it,” says Kirk Sorensen, a former NASA rocket engineer and now chief nuclear technologist at Teledyne Brown Engineering.

Typical nuclear power stations use uranium as their fuel source, but thorium reactors can offer greater safety, vastly reduced waste and much higher fuel efficiency. While only 0.7% of uranium’s energy is extractable, energy from thorium is 100% extractable.

“Once you start looking more closely, it blows your mind away. You can run a civilization on thorium for hundreds of thousands of years, and it’s essentially free. You don’t have to deal with uranium cartels,” says Sorensen.

The article goes on to discuss

  • What if thorium was used to power nuclear reactors?
  • Economy leaders race to thorium
  • Locating the world’s thorium reserves (aka the US and Australia)

By Heba Hashem, Middle East Correspondent, Nuclear Energy Insider, February 17, 2011.

Other Thorium Fuel Cycle References

Thorium Fuel Cycle, From Wikipedia, 2011.

John Ritch, World Nuclear Association: “Nuclear Waste Is The Duty Of Governments,” Nuclear Energy Insider, August 20, 2010.

An Academic Take On The Future Of Nuclear Energy, By Elisabeth Jeffries, for the Nuclear Energy Insider, October 4, 2010.

The Fusion Fission Hybrid Thorium Fuel Cycle Alternative, by Magdi Ragheb, University of Illinois, Feb 2010

About Thorium, World Nuclear Association, March 2011.

Uranium Is So Last Century — Enter Thorium, the New Green Nuke, By Richard Martin for Wired Magazine, December 21, 2009.

Drive to Build Thorium Reactor Prototype Launched In U.K., Posted September 8, 2011 by Dan Yurman for The Energy Collective

– – – – – – – – – – – – – – – – – – – – – – – – – — – – – – – – – –


Copyright Notice: Product and company names and logos in this review may be registered trademarks of their respective companies.

Some of the articles listed in this column are copyright protected – their use is both acknowledge and is limited to educational related purposes, which this column provides.

On occasion, where it irritates me, I change British spelling to the US alternative, but not for words like Tonne, which is a difference unit that the US Ton.

Sources & Credits:  — Many of these items were found by way of the links in the newsletter NewsBridge of ‘articles of interest’ to the national labs library technical and regulatory agency users. NewsBridge is electronically published by the Pacific Northwest National Laboratories, in Richland WA.  If using NewsBridge as a starting point, I follow the provided link to the source of the information and edit its content (mostly by shortening the details) for information for our readers. I also both follow any contained links, where appropriate, in the actual article, and provide you those references as well as those gleaned from a short trip to Google-land. Obviously if my source is a magazine or blog that the material I work with.

In addition, when copying materials that I cite, I do not fill the sourced ‘quoted’ words with quotation marks, the only place I keep quotes intact is where the original article ‘quotes’ another secondary source external to itself.  Remember, when Doc sticks his two bits in, its in italics and usually indented.

In Closing

Readers please read about my paradigms views, prejudices and snarky attitudes at:

The materials I share in the topical snippets that follow come from the various weekly science and environmental magazines and newsletters, both pro or anti any given subject’s focus or technologies; as well as excerpts from blogs and ‘lists’ to which I subscribe.

Article selection (my article – my choice} are obviously and admittedly biased by my training, experience and at rare times my emotional and philosophical intuitive views of what works and what will not… But if you have a topic I neglect, send me feedback and I’ll give it a shot.

Since my topic segments are only a partial look at the original materials, click on-through the provided link if you want more details, as well as <often> to check out other background references on the topic(s).          Doc.

… And yes I trust Wikipedia, but only if I’ve checkout most of an articles references for bias and accuracy!

QUOTE de Mois — “Correlation is NOT Necessarily Causation”,  although you’d not know it from the gab of the nation’s talking heads and would be US Presidents. Science IQ, as a means testing for public office? A corollary to this is the demonstrated finding that you can’t change the beliefs of a true believer, fortunately they are only about 10% of our population; I do exclude water boarding and brain washing.

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