Tuesday, May 12, 2009

$2.1 Million Grant Funding for Algae Pilot Project

May 10, 2009
GPRE and Bioprocessalgae LLC Complete $2.1 Million Grant Funding for Algae Pilot Project
May 4, 2009 (MARKET WIRE) Omaha, NE - Green Plains Renewable Energy, Inc. (NASDAQ: GPRE) and BioProcessAlgae LLC have executed a grant award agreement with the Iowa Office of Energy Independence for a $2.1 million research and development grant from the Iowa Power Fund to build an algae pilot project at Green Plains’ ethanol plant in Shenandoah, Iowa.

“Algae has the potential to become an important carbon sequestration solution, biofuel feedstock and feed product,” said Todd Becker, President and Chief Executive Officer of Green Plains. “If the pilot project is successful, BioProcessAlgae will move to expand the photobioreactor system to full commercial scale. We believe that this pilot project will be one of the first operational installations of a photobioreactor system at an industrial plant in the United Sates utilizing emerging technology out of the laboratory.”

The Iowa Power Fund grant provides matching funds to install a series of photobioreactor units at Green Plains’ Shenandoah ethanol plant. Water, heat and carbon dioxide will be recycled from the ethanol manufacturing process to support continuous algae production. The grant provides funding through the end of the first quarter of calendar year 2010 with installation of the pilot project expected in the third quarter of 2009.
“BioProcessAlgae and its technology partners have made significant progress in the engineering, design and development of photobioreactor systems for algae production,” said Kevin Lynch, Chief Executive Officer of BioProcessAlgae. “The project will give us the opportunity to test our systems on a larger scale. This is a very important step toward system commercialization of algae technology.”

“The Shenandoah algae project is an opportunity to help the environment, the ethanol industry and the Iowa economy,” Becker stated. “Green Plains is committed to the advancement of next generation technologies and we appreciate the vision and assistance of Iowa Governor Chet Culver and the Iowa Office of Energy Independence in the development of this project.”

BioProcessAlgae LLC is a joint venture between Green Plains, NTR plc (a significant shareholder of Green Plains), CLARCOR Inc. and BioProcessH20.

GPRE Press Release
Posted by mus302 at 12:52 PM

Vickers Biofuel. Supporting Biodiesel, Algae, Biodiesel from Algae and Algae PhotoBioreactors

Wednesday, May 6, 2009

Area scientists are abuzz about algae


By Laura Petersen
- La Jolla Light



Photo courtesy of the San Diego Center for Algae Biotechnology

If energy is the space race of this generation, then San Diego is in it to win it.

Local universities, research institutions and private biotechnology companies are joining forces to figure out how to economically create biofuels from algae. The green organism that ranges from pond scum to seaweed may become the renewable fuel of the future.

If successful, San Diego could become the next Houston powering the nation, at the same time as reducing America's dependence on foreign oil and decreasing carbon dioxide emissions, a major element of global warming.

To advance the research and development of algal biofuel, scientists at UCSD, the Scripps Research Institute and other local research institutions recently joined industry counterparts to launch the San Diego Center for Algae Biotechnology.

"We are positioning San Diego to become the leader of the new energy economy," said Steve Kay, dean of biological sciences at UCSD and director of the new center, known as SD-CAB.

An estimated 270 biologists, chemists, geneticists and engineers in private biotechnology labs and universities in San Diego are already working to better understand algae as a renewable source for transportation fuels.

SD-CAB will facilitate communication and collaboration between these scientists and help quickly translate research discoveries to real-world applications, Kay said. Also, by joining forces under a single entity, Kay and others anticipate being able to better compete for funding, including the millions expected to come from the Obama administration for renewable energy.

Algae is widely seen as a promising source of renewable transportation fuels because it grows quickly, uses fewer resources and yields more fuel per acre than first-generation biofuels, such as corn or switchgrass.

For example, algae can generate 10 to 50 times the amount of oil per acre that soybeans or palms can. Only 45 million acres would be needed to produce the 140 billion gallons of liquid fuel America consumes each year.

Another benefit is that algae can grow in places where other food crops can't, including nonarable land in the sunny Southwest, as well as brackish and salt water.

The oil derived from algae can be integrated into existing refining and delivery infrastructure.

And, algae is carbon neutral fuel because it consumes more carbon dioxide when growing than it emits when the fuel is burned.

Scientists and venture capitalists say they are three to five years away from developing an economically viable, large-scale demonstration of algae biofuel production, at which point they hope major oil companies will step in to fund widespread production.

However, it's going to take billions of investment dollars to get there. Scientists still have a lot to learn about the microbiology of algae as well as figure out how to bring the price down from $20 to $30 a gallon.

But with premiere research institutions working with San Diego's cutting-edge biotechnology industry, and the perfect outdoor laboratory from the ocean to the Imperial Valley, Stephen Mayfield, associate dean at The Scripps Research Institute, is confident they will find the answers.

"It's not a just a biology problem, it's not just an engineering problem, it's not just a chemistry problem, it's all of those," Mayfield said. "The reason we're building this center is to bring all of these disciplines together. With all of us working together, we will crack this nut."



Laura Petersen
Laura is a writer for the La Jolla Light, Del Mar Times, Carmel Valley Leader, Rancho Santa Fe Record and Solona Beach Sun. Contact Laura at laurap@delmartimes.net.com.

Vickers Biofuel. Supporting Biodiesel, Algae, Biodiesel from Algae and Algae PhotoBioreactors

Tuesday, May 5, 2009

Hailed as a miracle biofuel, jatropha falls short of hype

Hailed as a miracle biofuel, jatropha falls short of hype

The scrubby jatropha tree has been touted as a wonder biofuel with unlimited potential. But questions are now emerging as to whether widespread jatropha cultivation is really feasible or whether it will simply displace badly needed food crops in the developing world. By Jon R. Luoma of Yale Environment 360, part of Guardian Environment Network


The scrubby jatropha tree has been touted as a wonder biofuel with unlimited potential. But questions are now emerging as to whether widespread jatropha cultivation is really feasible or whether it will simply displace badly-needed food crops in the developing world.
by jon r. luoma

The widespread publicity surrounding a seeming wonder-plant called Jatropha curcas began in earnest in the mid-2000s. A good-news story, it went like this: In the mildly toxic, oval-shaped, oily seeds of this hardy, shrubby tree was a near-miraculous source of biofuel. Since jatropha could grow on arid, barren lands, cultivating it would avoid displacing food crops such as corn and soybeans — a major drawback of so-called first generation biofuels. The world's thirst for combustible fuels could be slaked, according to the buzz surrounding jatropha, with energy harvested from wastelands rather than from fertile fields.

Native to Central America and well-adapted to the tropics and subtropics, jatropha seemed a boon for the very places with some of the highest rates of poverty and plenty of hot, dry lands: the global south, from Latin America to Africa to Asia. Not only was the cultivation of jatropha supposed to absorb more CO2 from the atmosphere than it released, but the miracle tree could also stabilize and restore degraded soils. That's surely why Scientific American in 2007 called jatropha "green gold in a shrub," a plant that "seems to offer all the benefits of biofuels without the pitfalls."

Fast forward a couple of years. By 2009, governments from China to Brazil, along with several major biofuel companies, had planted — or vowed to plant — millions of acres of jatropha. In India alone, the government has announced plans to subsidize an intensive program to plant jatropha for biofuels on 27 million acres of "wastelands" — an area roughly the size of Switzerland. And the jatropha push is on in other countries such as Myanmar, Malaysia, Malawi, and Brazil.

Despite all this, however, it's not at all clear that jatropha will ever be the green gold it's been cracked up to be. In fact, no one yet seems to know for sure if the kind of large-scale jatropha plantations that would make a real dent in world fuel demand can actually be productive, while also avoiding the problems associated with growing corn, sugar cane, and soybeans for biofuel.

Today, most jatropha grown for biofuels is cultivated on plots of less than 12 acres and is primarily used locally. A global biofuels market for jatropha
is only just beginning to emerge. One of the handful of companies involved in large-scale jatropha production is D1 Oils, a U.K.-based biofuels technology company that says it already has more than a half-million acres under cultivation, much of it in India. A 2008 report by jatropha producers said that 242 cultivation projects existed globally, growing the tree on 2.2 million acres; by comparison, Brazil alone grows sugarcane for ethanol on 7.2 million acres of land.

A key issue surrounding jatropha is the productivity of the tree in the dry, degraded lands on which it is said to thrive. Rob Bailis, an assistant professor at the Yale School of Forestry & Environmental Studies, along with Yale Ph.D. candidate Jennifer Baka, recently launched the first detailed "life cycle" environment assessment of jatropha as a biofuel. Although their study is in its early stages, Bailis notes that it's already clear that, while jatropha can indeed grow on lands with minimal water and poor nutrition, "if you plant trees in a marginal area, and all they do is just not die, it doesn't mean you're going to get a lot of oil from them."

He says evidence suggests that the tree will grow far more productively on higher quality land with more rainfall or irrigation. Indeed, even executives at D1 Oils warn against overestimating jatropha's potential to produce economically viable yields on severely degraded lands.

"If you grow jatropha in marginal conditions, you can expect marginal yields," says Vincent Volckaert, the Africa regional director for D1.

And there's the rub, says Bailis. "If you grow it in better agricultural conditions, all the alarm bells go off as you get into the same food-versus-fuel debate we've seen with [biofuel from] corn."

Although it may still be early in the jatropha story, some of those alarm bells have already sounded.

Consider India's great push to plant jatropha. According to the Indian environmental group, Navdanya, government foresters have drained rice paddies in order to plant jatropha in the poor and mostly tribal state of Chhattisgarh. As early as mid-2007, protests broke out in the mostly desert state of Rajasthan over a government scheme to reclassify village commons lands — widely used for grazing livestock — as "wastelands" targeted for biofuel production, primarily jatropha.

On Mindanao, the second-largest of the Philippine islands, protests erupted in late 2008, with indigenous leaders insisting that jatropha plantations had begun to displace needed crops of rice, corn, bananas, and root vegetables.

A striking symbol of jatropha's pitfalls can be found in Myanmar, formerly Burma. Late in 2005, Myanmar's military dictatorship — newly enamored with what's been called "the biofuel tree " — ordered all of that nation's states and other political divisions to plant about a half-million acres each. In a predominantly agrarian country where child malnutrition is rampant, entire plantations have sprung up where food crops once grew. Under the threat of imprisonment, households have been forced to buy seed and plant jatropha in backyard gardens. Human rights groups report that teachers and their pupils, along with medical and government workers, have all been pressed into service to plant jatropha.

Yet according to scattered stories that have leaked out of a country generally closed to the foreign news media, the same government that infamously bungled its response to a devastating May 2008 typhoon did not have the foresight to build adequate infrastructure to mill the jatropha seeds or process them into biofuel. The seeds — grown at the expense of food crops — were left to simply rot on the ground.

It's not all bad news. In the West African nation of Mali, on the southern edge of the Sahara, jatropha had long been grown as a sort of living fence to keep wildlife from crops, and sometimes as a source of handmade soap. In recent years, often with the help of nonprofit groups like the Denmark-based charity Folkecenter, local jatropha processing mills have appeared in hundreds of villages, providing fuel for lamps, cookstoves, and generators. The biofuel is not only cheaper than conventional oil and diesel, but it is available during rainy seasons, when impassable roads can block conventional fuel delivery. Even the solid "press cake" left over after the oil is squeezed out of the seeds has value as either an organic fertilizer or, if processed to neutralize the natural toxicity, animal feed.

But for jatropha to reach wonder-plant status — to make even a meaningful dent in a world that presently consumes 80 million barrels of oil every day — the tree would have to be grown on a scale far beyond the village level. Jatropha's potential was recently underscored by highly publicized jet test flights using a mix of jatropha and other biofuels. Boeing reported that at altitudes where fuels must last hours at sub-zero temperatures, the jatropha/biofuel mix not only performed well, but actually had a higher freezing point than conventional jet fuel. Jatropha fuel also contains more energy per gallon, meaning less fuel weight has to be lifted off the ground. In March, Boeing officials told a Congressional hearing that they were "very confident" that jet fuels from plants such as jatropha could power their planes in a low-carbon future.

In an early 2008 test, Virgin Airlines flew a jet from London to Amsterdam powered with a dollop — about five percent — of a similar biofuel, this one made from coconut oil. Never mind that the British magazine, New Scientist, calculated that it could take 150,000 coconuts to fully power even that short flight. Virgin CEO Richard Branson suggested that jatropha grown on arid soils could be the ticket for a green-fueled aviation industry, whereupon New Scientist calculated that it would take land twice the size of France to grow enough jatropha to power the world's jet fleet. (Dramatic boosts in yields could improve that equation.)

If jatropha is to be grown on an industrial scale, the plant will need to be tamed and cultivated, and its oil yields vastly enhanced through conventional plant breeding or genetic manipulation. A San Diego start-up company, SG Biofuels, says it has amassed the world's most complete library of jatropha genetic material and, with a cadre of scientists on its staff, believes it is on the way to quadrupling oil yields from 200 gallons per acre to 800 gallons per acre. A comparable boost in yields came after rubber trees were domesticated.

Even if enterprises like SG and D1 Oils can push the genetic envelope enough to make jatropha profitable, will the world actually be able to benefit from growing and processing the plant on a large scale? The jury's still out. Yale's Bailis says his life-cycle study still hasn't established that jatropha biofuel will ever be "carbon positive," meaning that growing the plant absorbs more CO2 from the air than it releases. He says he suspects that it can be, but he also points out that if cultivating the plant means leveling forests or plowing up native vegetation, large volumes of carbon would be released, possibly canceling out any benefits.

Whether jatropha will turn out to be the wonder plant it was originally touted to be will depend a great deal on how and where it is grown — an issue that must be resolved by scientists, businesses, and governments. "Whether it turns out to be a positive or a negative is going to depend a great deal on how it's addressed at the policy level," Bailis says.

The best outcome might be to slow down the jatropha steamroller and let science sort out whether it can be grown on a mass scale in ways that make it preferable to food-based biofuels. If not, it may turn out that the world will still have to wait for a second generation of truly viable biofuels.

Full Story http://www.guardian.co.uk/environment/2009/may/05/jatropha-biofuels-food-crops

Vickers Biofuel. Supporting Biodiesel, Algae, Biodiesel from Algae and Algae PhotoBioreactors

Monday, May 4, 2009

Green science: A USM professor hopes his upcoming research in Delhi will lead to new businesses back home


Green science: A USM professor hopes his upcoming research in Delhi will lead to new businesses back home

By Carol Coultas

Mainebiz Editor

Yesterday
Ike Levine, Fulbright scholar and associate professor at the University of Southern Maine, is prodding algae into biodiesel

Wind, solar, tidal and wood chips get all the attention these days when the topic turns to alternative energy fuels. But Ike Levine, an entrepreneur and associate professor at the University of Southern Maine’s L-A campus, is spending the next year of his life refining what he believes is a superior energy source: algae.

Levine was selected for a Fulbright fellowship to pursue development of algae as biofuel, a process that he hopes will be the foundation of a growing biofuel industry in Maine. For the next year, he will go back and forth between his lab and the University of Delhi in India to work with a colleague to test environments that produce the best algae for fuel. Commercial interest in the biofuel has already come from the aviation industry, which sees the algae-derived oil as a reliable domestic alternative to jet fuel.

“It’s a pretty big thing,” says Levine, who teaches in USM’s Department of Natural and Applied Sciences. “There’s been about $600 million invested in the U.S. in the last three years … to grow microalgae and extract lipids from the algae to make biodiesel.”

Levine’s research will focus on how to best irritate algae, which when stressed release fats that can be converted into fuel.

“If the algae is in an environment that is cold, or they’re starved, or it’s too acidic, they react differently,” he says. “I’m researching how to irritate them without slowing the growth rate.”

Levine estimates the technology is about two to three years from commercialization, in which mass amounts of algae could be used to make biodiesel. Currently, algae-based biofuel costs about $4 a gallon; the goal is to get it to $1, he says. At Delhi, Levine will work with Dr. Dinabandhu Sahoo, a world-renown authority of algae.

“The University of Delhi in many respects is the Harvard or Berkeley of India,” says Levine. “Where we might have two or three algal graduate students in Maine, the professor I’m working with has 60.”
A solution of algae is prepped in Ike Levine's lab

Levine and his Indian collaborators will present their findings at seminars in Berlin in October and Washington, D.C., in March 2010.

In the ’90s, Levine formed his own company, Coastal Plantation International in Eastport, which developed multiple products from seaweed, including animal feed, medicine and food. In 2000, he sold the company to investors who wanted to expand it. Levine estimates that the algae industry today, which includes products made from seaweed and phytoplankton, generates about $6 billion a year in sales.

In 2001, Levine applied for a tenure track position at USM. He got the job, then filled an empty lab with $1 million worth of his personal lab equipment and began recruiting students to study algal physiology, algal molecular genetics and algal cultivation.

His hope is to expand his research in Maine once his year-long Fulbright program is over. A state revenue bond earmarked for research and development might send some money his way for further Maine-based research, he says. A recent grant proposal he submitted to the Maine Technology Institute, for which he had $500,000 in matching private contributions, wasn’t funded.

But Levine says the Fulbright award is a tremendous opportunity to further his work, and he says he is humbled by the prestige the highly selective award confers.

“The attention it has brought makes me a little uncomfortable,” he says. “I never really thought about what it meant. It’s great, but also a little overwhelming.”

Vickers Biofuel. Supporting Biodiesel, Algae, Biodiesel from Algae and Algae PhotoBioreactors

Biodiesel from algae goes with the flow

Biodiesel from algae goes with the flow

Researchers at United Environment and Energy in Horseheads, New York, say they have developed the first economical and environmentally-friendly process to produce biodiesel from algae. Ben Wen and colleagues' flow fixed-bed reactor technology is 40% cheaper than existing techniques and is faster too. It relies on using a new solid catalyst developed at United EE.

Methods for producing biodiesel from algae have not changed much over the last twenty years and are often expensive, inefficient and rely on toxic alkali liquid catalysts. Waste water is also produced. The new technique developed by Wen and co-workers overcomes these problems thanks to a proprietary solid catalyst.

The catalyst, which is made of mixed metal oxides, allows a continuous flow of biodiesel to be produced, unlike in the case of liquid catalysts that need to be neutralized with acid after each batch. No such treatment is needed for our catalyst, explains Wen, and algae oil and methanol are input from the inlet of the reactor and flow out of the reactor as biodiesel and glycerol. The continuous flow method could also be easily scaled up or down depending on the size of the production plant and might even be used in the field if portable devices were to be made.

Wen estimates that algae can produce 100-300 times more oil per acre than soybeans and thus are the most promising candidates for mass-producing biodiesel in quantities large enough to entirely replace transportation fuel in the US. Indeed United EE is currently conducting a pilot program that could produce nearly 1 million gallons of algae biodiesel per year. "Depending on the size of the machinery and the plant, it is possible for a company to produce up to 50 million gallons of the fuel annually using a small plant," he said.

Wen adds that United EE is the first to work on fixed-bed algae biodiesel production. Algae are also plentiful and grow abundantly in oceans, rivers and lakes throughout the world, and are not a primary food source for humans - unlike soy or palm oil.

The next challenge for the researchers is to get hold of large quantities of algae oil, since only limited supplies are available at the moment around the world.

The work was presented at the last meeting of the American Chemical Society in Salt Lake City.
About the author

Belle Dumé is a contributing editor to environmentalresearchweb.

Vickers Biofuel. Supporting Biodiesel, Algae, Biodiesel from Algae and Algae PhotoBioreactors

Tuesday, April 28, 2009

Algal Oil Extraction through Nanofarming

Nanotechnology is proving to be of great help to the biofuel industry. A joint project between the Ames Laboratory of the U.S. Department of Energy and the Iowa State University has led to the development of nanofarming, a major algal oil extraction breakthrough. Nanofarming algal oil extraction involves the deployment of nano-scale particles to extract oil from algae. This development is important because presently employed algal extraction methods like expression and hexane extraction kill the algae. Under current technologies, therefore, algae can be used only once and a new batch of algae must be cultivated and harvested to produce a new batch of algal oil.

With nanofarming, algae survive the oil extraction process. Algae cultures may therefore be used more than once. This leads to a significant reduction in algal oil production costs, algae farm space requirements and the interval between algal oil extractions. Nanofarming therefore makes large-scale and cost-effective production of algal biofuel commercially viable. In line with this, Ames Laboratory and catalyst maker, Catilin, Inc, are planning to incorporate nanofarming in commercial algal biofuel manufacture.

Vickers Biofuel. Supporting Biodiesel, Algae, Biodiesel from Algae and Algae PhotoBioreactors

Sunday, March 8, 2009

Algae Culture Kits

Hello everyone!

The new Algae Culture kits are now here! The Algae Culture kits will include the following.

1. Algae Culture
2. Glass Flask with stopper
3. Air pump
4. Air hose
5. Algae food for the Algae

The link will be up soon! If you have any questions, please email me vickersbiofuel@gmail.com.

--Tony


Vickers Biofuel. Supporting Biodiesel, Algae, Biodiesel from Algae and Algae PhotoBioreactors