Army Green

TGER

TGER, TGER, burning bright.

Arguments for sustainability can be counted on to come from the usual suspects like Al Gore and Ed Begley, but what if the call to action came from a different source, one long accustomed to sounding the muster?

Top brass in the Department of Defense have begun to take the idea of going green seriously for the uncomplicated reason that it makes strategic sense for national security. The United States military is the single largest purchaser and consumer of petroleum on the planet, burning through 340,000 barrels of oil per day according to NPR. That is 1.5 percent of the total energy consumed in the U.S. “If the Department of Defense were a country, it would rank about 38th in the world for oil consumption, right behind the Philippines, a country with a population of 90.5 million people,” says Michael Graham Richard of treehugger.com.

Not surprisingly, the Air Force is the largest petroleum consumer of the U.S. military branches. What is surprising is that the USAF have taken an early lead in the chase for the wild green yonder, winning the EPA’s “Green Power” award in 2006, snagging 4 more renewable energy awards in recent years, and quickly becoming the leading purchaser/consumer of wind power in the U.S. And this is not a token gesture but a committed, coordinated push towards energy independence by the Air Force. The Nellis Air Force Base in Nevada features the largest solar array in North America, saving the Air Force $1 million a year. Dyess (TX), Minot (ND), and Fairchild (WA) Air Force Bases all purchase 100 percent of their electricity from renewable sources.

In 2006, the Department of Defense spent $13.6 billion on energy. Every month U.S. Armed Forces use 1.2 million barrels of oil in Iraq alone. James Woolsey, former CIA director and energy advisor to the Pentagon, estimates that every gallon of oil costs the U.S. (i.e. you and me) $100 when supply line maintenance and security are factored in. But money isn’t the only issue. Maj. Gen. Richard Zilmer notes that 70 percent of U.S. military ground traffic in Iraq’s Anbar province is tankers transporting oil to the troops. He, like many others military officers, has requested solutions that would not require these easily targeted vehicles to make such frequent trips.

Both the Air Force and the Army have been pursuing waste to energy technologies for the DOD that could help solve this problem. The Army has developed one such solution for bases in the field: the Tactical Garbage to Energy Refinery or TGER (yes, that’s “tiger” – trust the Army to make burning garbage sound cool). Recently tested in Baghdad, the TGER separates mixed trash into wet and dry waste. The wet waste is converted into ethanol for the generation of electricity, while the dry waste is crushed into pellets and gasified to create energy. Each TGER unit has a capacity of 60 kilowatts. This solution is particularly elegant since it reduces the amount of waste that has to be removed from a base as well as reducing the number of dangerous trips by oil transports to the base.

Not to be left out, the Navy has been looking decidedly green around the gills. They, like the Air Force, have begun testing aviation biofuel (also known as biojet). Initial performance tests are planned for a 50/50 blend of jatropha, camelina, and algae biofuels with petroleum-based jet fuel. In testing by commercial airlines biofuel blends have proved more fuel efficient than petro-fuels, and feedstocks like camelina show an 80 percent decrease in lifecycle emissions. The cloud point of biofuel (the temperature threshold at which the fuel crystallizes) has posed a problem in the past but rapid improvements in fuel additives, such as those being developed right here at Blue Marble Energy, will greatly speed the advancement and performance of sustainably produced biofuels in both jets and ground vehicles.

The U.S. Armed Forces’ interest in sustainable resources proves yet again that going green is not just about warm fuzzy feelings or high minded morality, but rather a very straightforward choice between what is and what is not viable.

So next time the Blue Angels go roaring over head here in Seattle, take a moment to reconsider the stereotype of biofuel being just for hippy buses.

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Now That’s Recycling

Blue Marble EosAfter a brief hiatus from the world of the blogeratti, I am pleased to return with good news. Over the past several weeks, the Blue Marble team has devoted itself to pushing forward numerous key developments which have now begun to bear fruit.

We are very excited to announce that we are launching BME’s first product featuring our carbon neutral bioesters. Through collaboration with local couture perfumery Sweet Anthem, we have developed a limited run fragrance line, EOS, which features both feminine and unisex scents. This fragrance line is a perfect example of the immediate, high value application of BME biochemicals, which act as direct replacements to petrochemicals already in the market.

EOS was recently featured in a light-hearted KING 5 News holiday story, which drew a strong connection between the feedstock used to make the bioesters and the fragrance itself. While we agree a beer-flavored perfume would be, well interesting, EOS is something else entirely.

Blue Marble Energy’s EOS fragrance line is petrochemical and cruelty-free, containing only bioderived and organic materials. The fragrances feature a special selection of Blue Marble Energy’s carbon neutral bioester top notes carefully blended with Sweet Anthem’s custom fragrance heart and low notes.

Conventionally, perfumes and colognes contain odorants and musks that are synthesized from petrochemicals. Many of these commonly used ingredients, like polycyclic synthetic musks, can cause severe endocrine disruption and even have carcinogenic effects on the human body (see our recent chemicals blog for more). Large quantities of these synthetic musks and odorants can be found in cleaning products and detergents as well as fragrances. Certain naturally derived odorants also pose problems. The demand for aromatic materials like agarwood and civet musk (obtained from an innocent and furry relation of the mongoose) has led to illegal trafficking and the endangerment of species.

To make BME’s bioesters, our science team starts with certified organic spent brewery grain (from our neighbors at Fremont Brewing), which is processed through our patented AGATE technology to create volatile fatty acids (VFAs). Through catalysis, bioesters are then extracted from the VFA stream and are ready to be blended with Sweet Anthem’s fragrance oils. The feminine version of EOS is a very modern, bright, floral, tea-based scent, while the masculine or unisex version is characterized by citrus and cognac with hints of powdery apricot.

EOS will be offered in a limited run, and while supplies last you can purchase it here on the website or, if you’re a local, come on by and pick it up directly! Email info@bluemarbleenergy.net for more information or to set up a pickup.

So next time you’re knocking back a tall boy from Fremont Brewing, you can rest easy knowing that you’re doing your part for a healthy planet…that smells damn good too.

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Not Another Flavor of the Week

Flavor Flav!

Flavor Flav!

Evidence points to the development of the human sense of taste as a mechanism to avoid being poisoned. How strange then that every day we are fooled into eating a substance that poisons ourselves and our planet, namely, oil.

Human taste buds can generally detect about half a dozen basic flavors including sweet, sour, salty, bitter, astringent, and the less well known umami (a Japanese word for “tasty” or “brothy”, it signifies the rich taste of amino acids in meat, shellfish, mushrooms, etc.). When compared to the sense of smell, however, taste is very limited. What we perceive as “flavor” is in fact primarily composed of the aroma being released by what’s in our mouth. Smell is responsible for about 90 percent of a food’s taste. The human nose can detect smells present in quantities as tiny as parts per trillion (equivalent to about 0.000000000003 percent). Smell is also inextricably linked to memory. Food manufacturers capitalize on this fact, creating “comfort food” flavors that illicit childhood or happy memories.

The flavoring industry appeared on the scene in the mid-nineteenth century, hand in hand with processed foods. The early food processors looked to the established perfume houses of Europe for their first food additives. Germany took the early lead in flavor production, thanks to its powerful chemical industry. German scientists were said to have discovered artificial flavors by accidently creating methyl anthranilate (which happens to be the chief grape flavor in Kool-Aid). Post World War II, the flavoring industry found its way to the U.S., settling snuggly in beside the great fashion houses in New York City, and later expanding into New Jersey. The American flavor industry now boasts an annual revenue of over $1.4 billion. Every year in the U.S. approximately 10,000 new additive-heavy, processed foods are introduced to consumers.

Today the flavoring industry has become incredibly precise and complex. Flavor houses guard their secrets like jealous lovers, and the flavorists they employ must be part skilled chemist, part inspired artist. Like wine, flavors have a “top note” generally followed by a “dry-down” and a “leveling-out.” Flavorists even concern themselves with the “mouth feel” of food. Different chemicals are responsible for each stage of a flavor. Some of the more complex aromas, such as that of coffee or cooking meat, consist of volatile gases from upwards of a thousand different chemicals. The simple smell of strawberry is created through the interaction of over 350 chemicals. Despite all their complexity, flavor additives generally appear at the tail end of ingredient lists and often cost less than the food’s packaging. This is because flavor additives are present in miniscule quantities. As an example, the dominant flavor of a bell pepper can be detected by the human tongue in quantities as low as 0.02 parts per billion.

The difference between artificial and natural flavors is somewhat arbitrary and not a little absurd, based more on how the flavor is made rather than on what it contains. A natural flavor is created by extracting the flavorant from the source (like a pineapple say), through a process which can involve either solvents, distillation, or methods of brute force. The extract is then typically purified before being added to food products. An artificial flavor is often chemically identical to a natural flavor, but has been manufactured rather than extracted. To create it, the flavorist must isolate and mix together naturally occurring aromatic chemicals, or create a novel chemical compound that possess the desired flavor (bionic pineapple!).

The upshot of all this, is that it’s hard for a consumer to know what they are getting. A natural flavor isn’t necessarily better for you than an artificial one. The classic example is almond flavor or benzaldehyde. When derived from natural sources, like peach and apricot pits, it contains traces of hydrogen cyanide, a deadly poison. Artificially derived benzaldehyde, manufactured by mixing clove oil and amyl acetate does not contain cyanide. The FDA doesn’t require companies to disclose the secret recipes of their flavor or color additives, provided the chemicals in them are those considered by the agency to be “generally recognized as safe” (GRAS). While this might not be cause for panic, it allows some pretty strange things to get into our mouths. As an example, you might be interested to know the disturbing origins of red food coloring. One of the widely used red, pink, purple, and orange colorings is cochineal extract, often appearing on a label as “carmine” or “carminic acid.” It is made from the dehydrated bodies of female Dactylopius coccus and their unhatched larvae, a small insect that feeds on red cactus berries. These insects are farmed, collected, killed by immersion in hot water, dried, ground into pigment, and shipped to your local grocery store where they can be found in food products ranging from strawberry yogurt, to fruit fillings, to pink grapefruit juice. Bon appetite.

But what’s even more troubling than ground up bugs in our food is the oil. And I’m not talking about canola. Because of the high cost of natural extraction, almost every artificial flavor is produced from petroleum. These flavors often have more ingredients than the food they’re going into.

There is a solution with all the warm and fuzzy connotations of natural flavors, the price advantage of artificial flavors, and best of all without the use of oil. Some of the most groundbreaking advances in flavor manufacturing are now taking place in the field of biotechnology. Complex flavors are being made through enzymatic reactions, fermentation, and fungal cultures. World, meet USDA bioderived flavors. This new classification of flavor is derived from organic sources and has the same chemical profile as naturally occurring flavors without the prohibitive cost associations.

Here at Blue Marble we are using naturally occurring bacteria in specifically formulated cultures to produce our biochemicals for use in these bioderived flavors. Because all our biochemicals come from organic feedstocks they fit nicely into this category. Thanks to the quickly growing market for drop-in alternatives like these, we can decrease our dependence on oil one bite at a time.

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EOS: For Him, For Her, For the Future.

The first carbon neutral fragrance line, EOS
represents new possibilities and new horizons.
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By Blue Marble Energy & Sweet Anthem