Posts Tagged ‘biofuels business’

Mascoma Update: Cellulosic Ethanol Company Adds $10 Million From Marathon Oil

Marathon OilAutoblogGreen reported today that the cellulosic ethanol company Mascoma has received another $10 million for research and development from Marathon Oil. This comes after GM’s undisclosed equity share in the same company was announced last week, and puts the grand total raised in this round of financing at $100 million.

GM Announces New Cellulosic Ethanol Partnership with Mascoma Corp.

Mascoma Cellulosic Ethanol

General Motors announced today it would be entering into a strategic relationship with Mascoma Corp., a second-generation biofuel company with the technology to produce cellulosic ethanol from non-food sources via a single-step biochemical conversion.

The undisclosed equity share aims to contribute to joint research and development along with technology exchange, plant siting, and rapid commercialization of cellulosic ethanol technology and infrastructure. This is GM’s second investment in a cellulosic ethanol company, after announcing partnership with Coskata back in January.

World’s First Commercially Viable Cellulosic Ethanol Plant Online 2009

Range Fuels, ethanol, cellulosic

Range Fuels Inc. announced yesterday it has secured over $100 million in Series B funding, an investment that could make it the first company to seriously commercialize cellulosic ethanol. The first phase of construction will produce 20 million gallons of mixed alcohols per year by 2009, and has the potential to expand to up to 120 million gallons.

Range Fuels says their facility will break down any type of plant material (eg agricultural waste or wood chips) by a two-step thermochemical process. This differs from competing methods of producing cellulosic ethanol, which involve breakdown of plant material with heat and/or acid, and treating it with costly ($0.50/gallon) enzymes.

Shell, Virent to Develop Second-Generation BioGasoline

Virent, Shell, lab, biogasoline

After one year of collaborative research, Shell and Virent Energy Systems announced they will be trying to produce a biogasoline directly from plant sugars—as opposed to producing ethanol—with the intention of offering a fuel that can be used at high ratios in standard gasoline engines.

Instead of processing sugars into ethanol via fermentation, Virent’s trademarked “BioForming” technology uses catalysts to convert the sugars into a biogasoline. Virent claims their fuel has the same hydrocarbon content as gasoline, and has a higher energy content than both ethanol and biobutanol, which gives it a greater fuel efficiency. Virent says they can also use non-food feedstocks, such as corn stover and switchgrass, to produce the fuel.

Biofuels: Energy, Food and People

econow.jpgIs it going to come down to a choice between eating or driving? Is that what are future holds? If it does, it looks like the driving contingent may win (or in other words many others will lose…or starve). That’s a distorted overview of last night’s EcoNow presentation that highlighted the current and future state of biofuel. Actually I like the term that one of the speakers Eric Holt-Giménez used - “agrofuels” rather than “biofuels” because “bio” means “life” which certainly doesn’t represent these alt fuels.

The event held in Berkeley (where else?) gave Tad Patzek, Professor of Geoengineering at UC Berkeley, Miguel Altieri, Professor of Agroecology at UC Berkeley, Eric Holt-Giménez, Executive Director of Food First/Institute for Food and Development Policy, and Judith Mayer, Project Coordinator of the Borneo Project a chance to educate or frighten the audience into what’s happening with agrofuels, whether it’s ethanol, B20, or something else that makes our cars go.

Another Blue-Sky Energy Source

istock_000005136275xsmall.JPGYesterday the New York Times’ Dot Earth blog put up an excited post about a Los Alamos National Laboratory plan to convert CO2 into truly greenhouse-neutral synthetic gasoline and ethanol via “an electrochemical process.” Two hours later the blog had to temper its enthusiasm, having noticed that it would take huge amounts of energy, probably from nuclear power, to make it work.

This sort of thoughtless enthusiasm is way too common. At least no investors lost money this time, or, rather, yet.

I don’t want to insult anyone, but I think the real problem is that people don’t understand the chemistry — not even at a freshman level — that’s involved in thinking about what it would take to turn CO2 into fuel on an industrial scale.

A Birds-Eye View of the Coskata Ethanol Process… at CleanTechnica

cleantechnicalogo2.JPGWith all the writing we’ve done recently about the Coskata partnership with GM, and the unique process the company’s created to make ethanol from almost any material containing carbon, you might think we’re getting paid to cover this. That’s not the case, of course; rather, this news points to some really exciting new directions in ethanol development. We’ve got some more posts up on Coskata… but not here at Gas 2.0…

Today, we […]

Coskata Announces Ethanol Plant for 2010

agp3h6259.jpgCoskata, the ethanol technology company who made a major announcement about their biofuel technology at the North American International Auto Show earlier this year, has announced that they have established an alliance with ICM, Inc., a major producer of ethanol, to design and construct the first plant that will produce ethanol using Coskata’s bio-process. The plant is expected to open late in 2010, reflecting Coskata’s intentions to bring their technology rapidly to […]

Biodiesel Lawn Mowers for Sale

biodieselmower.jpg
The guy in the picture is JP Patten, entrepreneur and computer expert, shown with his newly outfitted biodiesel lawn mowers. Now, I think this guy’s got a great idea, he buys lawnmower motors from China, takes them apart, rebuilds them so they burn waste grease from deep fryers.

So far, so good. He says the engines are more powerful and more efficient than their gas counterparts, and they cause much less pollution. Ok, I’m sold, but how much are they?

National Algae Association Being Formed to Advance Biodiesel Production

algae.jpegHigh soybean and palm oil prices are sending biodiesel producers looking for a less expensive feedstock for their product. The poster child these days appears to be algae, pond scum with dignity.

Several companies are now researching and beginning to produce oil derived from algae, that would replace food crops as a feedstock for biodiesel production. They claim higher oil yields for less water and acreage needed for food crops.

The National Algae Association informed Green Options it has opened its new headquarters in The Woodlands, TX. An article in Biodiesel Magazine quoted the association founder, Barry Cohen of Biofuel Capital Partners, as saying “We’ve got biodiesel producers that are contacting us every single day because they know they’ve got a problem”, referring to high soybean and vegetable oil biofuel feedstock costs.

More About the Coskata Process

CoskataProcess

As you’ve almost certainly already heard by now, General Motors has announced a partnership with Coskata, Inc. to produce ethanol less expensively and without using food materials as feedstock for the process. This is exciting for a number of reasons. First of all, Coskata is close to completing a continuous demonstration stream at their laboratory. They also expect to have a pilot demonstration plant in place by the end of the year that will produce 40,000 gallons of ethanol. And later this year, they expect to announce the site for their first full-scale plant which will be capable of annual production of 100 million gallons of ethanol. The process also consumes less water resources (less than one gallon of water per gallon of ethanol produced) and delivers 7.7 units of energy per unit of energy used in the process.

The process relies on using anaerobic microbes that consume carbon monoxide and hydrogen and produce ethanol. Because the process uses specially bred strains of microbes, they produce ethanol exclusively, unlike other fermentation processes, which often produce a range of alcohols and which require further distillation. Furthermore, the flexibility of the Coskata process allows for other microbes to be used in the same process setup (or even a parallel setup). Other strains of microbes that produce other useful alcohols, including some used as precursors for plastic production, so that the same technology could be used in other applications to provide a petroleum replacement.

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