Monthly Archives: June 2007

I posted a note about Professor James Dumesic’s team at the University of Wisconsin developing an easy means of producing DMF with the potential use as a biofuel.

This team has also been noted for improvements made in producing hydroxymethylfurfural (HMF). HMF looks similar to DMF, but contains two additional functional groups that allow for its potential use as a building block for plastics or other industrial products.

Essentially, this team has developed a more efficient way of converting fructose into HMF. They have achieved an improved yield at higher concentrations. The details are a bit more complex, but rely on a strategy of using catalysts to improve the yield of HMF and using a more effective solvent for purification purposes. This results in a faster, more efficient process.

Fructose is an interesting starting point for this process. Fructose is used as a sweetener in candies and soft drinks (I spent a summer in college working for Corn Products International in Bedford Park, IL – a major producer of high fructose corn syrup). It is a corn-extract making it a controversial choice of feedstock. A cellulosic feedstock would be a more efficient choice and could hold promise.

This is also another furan-based molecule. Furan itself is a suspected carcinogen and has some unknown health effects. It would also be prudent for these effects to be fully considered in order to understand if these types of products can be widely used more safely.

It’s also important to note that this process is not a fermentation process. Fermentation usually takes long times for production and purification. This, however, is a more straight forward industrial process that can be done without long cycle times and other costs inherent to fermentation.

This type of building-block is important for pushing for a renewable feedstock-based industry. While the chemical industry was originally agrarian (before oil was cheap and plentiful), it was never as advanced as our current industries are today. Developments like this provide an opportunity for companies that develop plastics (and other products) to have a renewable alternative to choose from. This, ultimately, will be what drives this industry away from using petrochemicals.

More:
Dr. Duesic’s Lab
Technology Review Article
Science Publication

I’ve been studying the energy industry pretty intently for the last 2 years. After all of the different companies and technologies and stories, I wonder if we are really doing the right things.

This world energy crisis that we are engaged is a tough one. It reaches to the core of how we live. More so, it is a treatise on the ills of what we have defined as “success”. A big car and a big house in the suburbs is the hope of all people (we can argue about what “big” means). But we have created a world where that success harms the world around us.

Weather we like it or not, it’s our problem. And we have to do something about it.

But are we going about it the most effective way?

Businesses deal with managing complex problems like this all the time. I mean, selling 100 Million iPods or producing and distributing Coca-Cola all over the earth is a monumental problem. But they were both accomplished in rather short-order. I think this crisis could be addressed in a similar fashion.

In this essay, I want to address two primary questions:

1) How we are currently managing this problem

2) What might be a more effective strategy to address this problem

3) What opportunities are there for addressing the gaps between these two scenarios

I will, however, take a more high-level perspective on this and avoid much of the politics behind this issue. I acknowledge that it has been a heated and difficult debate, but will try to leave political issues for another post.

Interesting interchange on carbon cap and trade proposal.

BP, Associated British Foods, and DuPont are investing $400 Million in a Joint Venture to produce bioethanol for the UK market. They will utilize an existing BP location to build a greenfield 420L/year plant for producing ethanol.

From the Press Release


The bioethanol plant, in which BP and ABF subsidiary British Sugar would each hold 45 per cent with DuPont owning the remaining 10 per cent, will be built on BP’s existing chemicals site at Saltend, Hull. Due to be commissioned in late 2009, it will have an annual production capacity of some 420 million litres from wheat feedstock.


and goes on to say:


The BP site in Hull has also been selected as the preferred location for a planned biobutanol demonstration plant, funded and owned equally by BP and DuPont which could produce around 20,000 litres of biobutanol a year from a wide variety of feedstocks.

This is an interesting (and encouraging) development. DuPont and BP have an existing partnership to develop biobutanol. However, each would need a critical agricultural partner in order to do real ground-level commercialization of their next generation biofuels. This JV seems to provide a great platform for integrating the strengths of each of these companies.

This same site is said to be the location of a joint BP-Dupont facility to continue their biobutanol commercialization efforts. It appears that this facility (and corresponding relationships) could become a center for the world biofuels development.


Some more interesting technology developments:

Wave Energy
Marine Current Turbines announced that they will install a 1.2 MW wave-harvesting facility off the shore of Northern Ireland. This is apparently the first and largest high-capacity installation of wave technology. Given how harsh North Atlantic waters can be, this installation could really give some credence to weather this technology can hold up to a wide range of operating environments.
Press Release (PDF)
RedHerring Article

POET makes cellulosic ethanol from corn cobs
POET energy, the largest dry-milling corn ethanol producer in the U.S. has successfully produced cellulosic ethanol from corn cobs. This is an important first step for the commercialization of cellulosic ethanol as corn “waste” (it’s not waste anymore) can be reclaimed for additional production volume. This technology will be the focus of their developmental projects that were funded by the Department of Energy back in March.
POET Press Release.

Microbes for oil harvesting
We mentioned earlier that Synthetic Genomics has formed a partnership with BP to investigate alternative technologies for oil recovery. Technology Review has an interview with Synthetic Genomics’ President Ari Patrinos.
TechnologyReview Article

WSJ news interview on current oil supply trends.

The Department of Energy has announced funding for three research centers to develop technologies to improve the efficiency of cellulosic ethanol production. The three centers in Oak Ridge, TN, Berkeley, CA, and Madison, WI will share $375Million in government funding.

Here’s a note from the DOE Press Release:

“These Centers will provide the transformational science needed for bioenergy breakthroughs to advance President Bush’s goal of making cellulosic ethanol cost-competitive with gasoline by 2012, and assist in reducing America’s gasoline consumption by 20 percent in ten years,” Secretary Bodman said. “The collaborations of academic, corporate, and national laboratory researchers represented by these centers are truly impressive and I am very encouraged by the potential they hold for advancing America’s energy security.”

These three centers are strategically placed near other large research centers (Oak Ridge National Lab, UC Berkeley et al, and Univ. of Wisconsin – Madison), presumably to take advantage of the local intellectual capital. This is a strong movement by the government and seems to be signalling that current development projects are not adequate to bring about the type of volume of cellulosic ethanol desired.

Yet again, this undertaking is so monumental that all of the investment that has gone into this industry is needed (and then some). That’s what’s missed in this equation. As we discuss the merits of biofuels (pro or con), we must also note that changing over even part of our fuel economy would require significant investment. Even an E10 mandate would result in a $30Billion+ industry. That just doesn’t appear overnight. A lot of investment must be made and seen to fruition. This investment by the government is well spent and couldn’t come too soon.

Also see the Technology Review posting

Pearson Fuels is receiving a grant (of unknown amount) from the California Air Resources Board to aid fuel distributors in installing E85 tanks and dispensers. This is an interesting development because this company is the only E85 dispensation station in California (according to the article). It’s a bit unusual for a single company to be the beneficiary of this type of grant money (although CARB has been known to give specific funds for projects such as Tesla Motors’ $500K+ grant to install plug-in stations in specified locations). It’s more surprising that there is this movement taken rather than, say, a state-wide incentive to drive E85 installations similar to that for the solar industry (California Solar Initiative).

Here’s some more from the article:

Pearson Fuels model for installing the E-85 system involves contracting with an existing gas station owner to bring to their site a new E-85 tank and dispenser. The actual cost to bring the equipment to an existing site varies from $100,000 to $200,000. It has been extremely difficult to get an Ethanol station built in California as evidenced by the fact that the state of Minnesota has over 300 public ethanol stations. California has only one, Pearson Fuels.

Additionally, the permitting process has made it almost impossible for a station owner to install E-85 without proven outside assistance. Pearson brings to the table a long-standing relationship with ARB as well as their financial backing to help bring E-85 to the general public. The interested station owner will contract with Pearson to install the E-85 dispenser at little or no cost, Lewis said. In exchange for Pearson installing the dispenser and tanks to the existing station, the owner signs a fuel supply contract with Pearson for the delivery of the E-85 fuel.

This is an interesting business model and it is a little surprising that there hasn’t been more interaction between government (in the form of incentives programs) and other entrepreneurial efforts such as this. Apparently, the interested money is looking at other ventures like solar and biofuels production. Hopefully this will stoke some debate on the supply side development of the biofuels industry.

I have been watching several ethanol stocks over the last few months and wanted to see how each has been doing since their initial IPO date.

Here’s some data:


It’s interesting to note that while Verasun is struggling a bit, Pacific Ethanol is still up on its initial IPO price (although it’s traded higher than its current levels). However, it’s important to note that the market as a whole has been up substantially over the span of all of these stocks’ existence (even Diversa / Verenium which apparently IPOed during the dot com boom). In the end, that’s the real disappointment with these stocks. They seem to have good management with seemingly a good vision of the road ahead. But at the end of the day, they are in a hard, growing industry that will take a while to get its legs underneath it. The stocks reflect this fact, I think.

I will keep tracking these stocks (and others that I may add) regularly in the future to see how well they are performing. This should serve as a starting point for this ongoing dialog.

The AP is reporting on a Goldman Sachs study that shows that the U.S. commands fewer global energy companies than 16 years prior. This article, while making very legitimate points, amounts to a “sky-is-falling” document from Goldman to stoke the conservative base of customers that it is soliciting (and not very level-headed). I take issue with this article on many fronts.

Declining “share”:

At the end of the first Gulf War in 1991, 55 percent of the 20 largest companies in the energy industry by market capitalization were American, and 45 percent were European, according to the Goldman Sachs Group Inc. study.

But in 2007, 35 percent of the 20 largest energy companies are from BRIC countries, about 35 percent are European, and about 30 percent are American, the study said.

This is a bit of a farcical evaluation for three reasons:
1. BRIC nations and Europe are not unified bodies. Those two groups represent more than 25 nations. So you could also look at the report and say that the U.S. still maintains a “controlling stake” (if that was even an important metric) in the global energy industry.
2. The data is presented in such a way that indicates a fixed pie of opportunity. It didn’t say that the pie got bigger through adding the BRIC and other developing nations. It implies that we are losing share to them rather than the rising tide is lifting all boats.
3. The notion of a company belonging to a country is a bit of an antithesis to the globalization process that they are a part of. BP is as much an American company as any other, even though it is based in London. Energy is a global commodity and each company has interests in the development of all world markets. It ought not matter if they are in Europe, the U.S., or Brazil. What should matter, however, is that the governments of these nations understand and embrace that their nations’ futures are interlinked and take actions to support this relationship, not to damage it.

Missed opportunity:

It is already evident in the insurance business, where BRICs account for about 10 percent of the top 20 companies, and in the global beverage industry, where the new economic powers are just starting to show with about 5 percent. Ling predicted the BRICs would soon be moving into the food and pharmaceutical sectors.

If investors and corporations don’t take the growing power of the BRICs in the global economy into account, he warned, they will lose out on investment growth and competitive advantage for their companies.

This is also a bit of a myopic argument. But this article seems to indicate that if you aren’t investing in another market that you’re missing an opportunity. While that’s true in a narrow sense, the real impact of the development of other nations is that there are many more opportunities created. Investors can be creative in “playing” these developments to meet their investment goals. One need not be scared into thinking “if you’re not in Brazil, you’re behind”. Case-in-point, buying shares in ExxonMobil (if you can tolerate their lax renewables efforts) would be a great investment given the rise in global demand for oil products. This is an “American” company with growth driven by global demand for their products. In short: you’re smarter than what this article is touting. Think before you invest.

“Falling Behind”:

Another factor, Ling said, is the declining number of petroleum engineers in the U.S., especially compared with the Middle East, India, China and Russia, where “being a petroleum engineer is still a highly sought after job relative to going into technology or finance.”

This notion that the U.S. is falling behind somehow, particularly with engineer development, is more complex of an issue (that is a bit personal to me). The U.S. is graduating fewer engineers mostly because the prospect of being one is really bad. Many people don’t really address the issue that engineering as a profession in the U.S. is really a bad deal for young people. Which would you rather be when you’re 22:
a) A consultant for Accenture living in downtown Chicago making $75K /yr.
b) A chemical engineer in Garyville, Louisiana (population 740) at a specialty chemicals plant making $50/yr.

I chose the latter and it was really sucky. My Accenture friends were happier and richer. Even though I love engineering, there’s no reason to do it. The money jobs right now are in investment banking, private equity, or consulting. I have seen hundreds of job postings in the last six months for some great jobs and almost all of them are looking for this experience – not engineering (in fact, I’ve been told that I’m too big of a risk to hire because I haven’t been a consultant, only a plant engineer prior to business school). So it comes down to a matter of incentives, and there is very little incentive to be an engineer in the U.S. That’s the situation – I don’t know that it’s a problem (the real problem is our unfair immigration policies that is forcing out/preventing entrance to some really great people).

What isn’t being said is that there are some really great engineers in this countries doing some really innovative work (I’ve noted some of these developments on this blog). But those are in new, growing industries like biotech and nanofabrication. No really good engineer who wants to stay an engineer is going to go work in an Exxon plant. But these new industries are coming on strong and this article dismisses this part of the reality.

In short, this article/study makes a point. But it is also deceptive in its arguments. Be smarter than this. You’re not missing out on anything – the game’s just starting.