In the News

Seattle Pi

January 13, 2017

By Daniel DeMay

Sea-Tac Airport could become one of the first major U.S. airports to start using biofuel for every flight that leaves its tarmac.

That’s the lofty goal that drove a study released yesterday on how to build the infrastructure needed to get aviation biofuel into Sea-Tac’s fuel supply.

“Here in Seattle, we’re in such a unique position to lead in this industry,” said John Creighton, president of the Seattle Port Commission. “We live in a community that inspires us to think bigger about sustainability and in the Northwest, we understand that climate change is real.”

The study is the work of a partnership between the Port of Seattle, Alaska Airlines and Boeing, and focused on finding a site where biofuel could be mixed with jet fuel (planes can only run up to a 50-50 mix of aviation biofuel and jet fuel) and then fed into the existing fuel supply for the airport.

Widespread use of biofuel could significantly reduce emissions of carbon dioxide, sulphur, soot and other particulates from commercial aircraft -- a footprint of 50 to 80 percent less than regular jet fuel, according to the study.

David Williams, with engineering firm WSP Parsons Brinckerhoff, led the study, looking first at 29 different sites with access to the Olympic Pipeline -- the primary source of jet fuel from northern refineries. Williams narrowed it down to three and found that the best short-term solution would be to incorporate the biofuel infrastructure at the existing Sea-Tac fuel farm.

Biofuel could be trucked in, mixed and added to the Olympic Pipeline supply at that site for the lowest cost -- estimated at $13.95 million.

But to get to a large-scale operation -- the study’s goal is 50 million gallons of biofuel per year initially, ramping up to 100 million gallons after 2025 --  found that creating the infrastructure at one of the three northern refineries would the best long-term solution, albeit a more costly one at something around $104 million.

These estimates are far from concrete, however, as since there are currently no commercial producers of aviation biofuel in the region, transport costs are almost a total unknown, Williams said.

Another study focused on financing this kind of infrastructure is due out sometime this spring, Creighton said.

The lack of a commercial biofuel producer also makes it hard to come up with a timeline for how soon such a project could come to fruition at Sea-Tac.

Alaska Airlines has set a goal of bringing commercial aviation biofuel to one of its airports by 2020, with a preference for Sea-Tac, said Carol Sim, director of environmental affairs for Alaska.

In 2011, the Seattle-based airline flew 75 flights on a blend of used cooking oil biofuel, and has since flown two more flights on biofuel variants -- one on a corn alcohol-based fuel and one on a “woody biomass” fuel, Sim said.

Alaska is in talks with several fuel producers now, with the hopes of striking a deal that will provide a consistent supply of aviation biofuel, Sim said.

“If it’s before 2020, that would be great,” she said. But more likely, it will take longer to get the project airborne at full-scale.

The Port will also take aim at integrating the biofuel infrastructure goals into the new Sustainable Airport Master plan, said Stephanie Meyn, climate protection program manager at the Port of Seattle.

Sea-Tac won’t be the first airport to use biofuel on a regular basis, as Los Angeles’ LAX already sends some amount of biofuel up in most flights, Meyn noted. In May, United Airlines began flying routes to San Francisco using a blended fuel with 30 percent biofuel, with the goal of eventually flying all its routes on biofuel blends.

Read the original story: Study Looks at Biofuel for Flights Out of Sea-Tac

Ethanol Producer Magazine

January 13, 2017

By Erin Voegele

The U.S. Energy Information Administration recently released the January edition of its Short-Term Energy Outlook, predicting ethanol production will average approximately 1 million barrels per day in 2017, increasing slightly to 1.02 million gallons per day in 2018. In 2016, production averaged 1 million barrels per day. In its December STEO, the EIA predicted ethanol production would average only 990,000 barrels per day in 2016, increasing to 1 million barrels per day in 2017. 

On a quarterly basis, ethanol production is expected to average 1 million barrels per day during the first and second quarters of 2017, increasing to 1.02 million barrels per day during the third quarter, and falling to 1 million barrels per day in the fourth quarter. In 2018, ethanol production is expected to be at 1.03 million barrels per day during the first quarter, falling to 1.02 million barrels per day during the second and third quarters, and falling to 990,000 barrels per day during the fourth quarter. 

Ethanol consumption averaged approximately 940,000 barrels per day last year, and is expected to be maintained at that level in 2017. In 2018, ethanol consumption is expected to increase to 950,000 barrels per day. According to the EIA, this level of consumption results in the ethanol share of the total gasoline pool averaging approximately 10 percent in both 2017 and 2018. Only marginal increases in higher-level ethanol blends are assumed to occur during the STEO forecast period.

Biodiesel production averaged 99,000 barrels per day in 2016 and is expected to increase to an average of 104,000 barrels per day this year and 111,000 barrels per day next year. Net imports of biomass-based diesel are expected to increase from 47,000 barrels per day in 2016 to 51,000 barrels per day in 2017 and 57,000 barrels per day in 2018.

Within the STEO, the EIA predicts U.S. regular gasoline retail prices will increase from an average of $2.25 per gallon in December to $2.31 per gallon during the first quarter of 2017. Overall, gasoline prices are forecast to average $2.38 per gallon this year, increasing to $2.41 per gallon in 2018.

The EIA’s most recently weekly ethanol production data shows a new record was set the week ending Jan. 6, with production reaching an average of 1.049 million barrels per day. The most recent monthly import data shows the U.S. imported only 31,000 barrels of ethanol in September, all from Brazil. In October, the U.S. exported nearly 3.14 million barrels of ethanol, with top export destinations of Brazil, Canada and India.

Read the original story: EIA: Ethanol Production Expected to Increase Slightly in 2018

Energy AgWired

January 16, 2017

By Cindy Zimmerman

A new report from the United Nations Food and Agriculture Organization (FAO) finds that food prices declined for the fifth year in a row in 2016, down 1.5 percent from 2015. That included a steady decline in cereal prices- which includes maize or corn – which fell 9.6 percent from 2015 and were down 39 percent from their 2011 peak.

At the same time last year, the U.S. ethanol industry set records for both production and exports, and the final 2016 corn harvest is estimated at 15.1 billion bushels, 11% higher than 2015.

“The FAO news clearly demonstrates that increased ethanol and corn production has not driven up food prices,” said Renewable Fuels Association president and CEO Bob Dinneen, who notes that U.S. ethanol production will use just 2.95% of global grain supplies, the lowest in six years. “As yet another analysis has found, it’s time to put an end to the demonstrably false ‘food vs fuel’ myth that our opponents inexplicably continue to pass off as fact. There is more than enough corn to both feed and fuel the world.”

Dinneen said the FAO report backs up findings of a recent analysis commissioned by the RFA, which found that retail food prices were “not impacted in any demonstrable way by expansion of U.S. grain ethanol production under the Renewable Fuel Standard (RFS) over the past decade.”

Read the original story: New UN Report Shows Food vs Fuel Fallacy

Biomass Magazine

January 10, 2017

By Erin Voegele

On Jan. 9, Gevo Inc. published an update describing fourth quarter operations at its Luverne, Minnesota, biorefinery. The U.S. EPA also recently released a notice approving a fuel pathway for the plant regarding the production of butanol from corn and sorghum.

In its update, Gevo indicated the Luverne plant produced approximately 190,000 gallons of isobutanol during the final three months of 2016, achieving the highest quarterly production level in the company’s history. Based on results measured across the final six weeks of the quarter, Gevo said it demonstrated an isobutanol production capacity of approximately 1.5 million gallons per year. For the full year 2016, isobutanol production reached approximately 440,000 gallons.

According to Gevo, it also produced a record number of batches during the quarter since switching the plant to the side-by-side model of production, achieving its targeted back-to-back five-day turnaround batch times over much of the three-month period. In addition to butanol, 2.8 million gallons of ethanol was produced during the fourth quarter.

Gevo also noted it surpassed production cost targets for butanol and demonstrated variable costs of production of less than the targeted $3:00-3:50 per gallon.

In its statement, Gevo announced the Luverne plant was taken offline on Dec. 21 to perform unplanned necessary repairs and maintenance on certain components of the plant’s regenerative thermal oxidizer (RTO). As of Jan. 9, the plant remained offline, as the company said it decided to make further upgrades to the RTO, which was installed approximately 10 years ago. The facility is expected to be back online within the next two weeks.

Also in early January, the EPA posted a notice to its website announcing the agency has approved a fuel pathway filed by Gevo for the production of butanol from corn starch and grain sorghum. The pathway approval applies to both D5 advanced biofuel and D6 renewable fuel renewable identification numbers (RINs).

Within the approval, the EPA states that Gevo’s butanol produced from corn starch feedstocks appears to already qualify under an existing pathway for the production of D6 RINs, assuming the company satisfies the pathway specifications and other requirements specified in the Clean Air Act and regulations. The EPA also said it has determined that butanol produced by the Luverne facility from grain sorghum feedstock can also qualify for D-code 6 RINs, and butanol produced by the Luverne facility from corn starch and grain sorghum feedstock can qualify for D-code 5 RINs if the fuel meets the conditions and certain associated regulatory provisions.

Documents published by the EPA notes corn starch butanol produced at the Luverne plant achieves a 50.3 percent lifecycle greenhouse gas (GHG) reduction when compared to baseline gasoline, while grain sorghum butanol produced at the plant achieves a 54.6 percent lifecycle GHG reduction when compared to baseline gasoline.

A full copy of the pathway approval can be downloaded from the EPA’s website.

Read the original story: Gevo Releases Operational Update, Achieves EPA Pathway Approval

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United States Department of Agriculture

January 12, 2017

Agriculture Secretary Tom Vilsack today announced the release of a report studying the lifecycle greenhouse gas (GHG) balance of corn ethanol. The report, A Life-Cycle Analysis of the Greenhouse Gas Emissions of Corn-Based Ethanol, finds that GHG emissions associated with corn-based ethanol in the United States are about 43 percent lower than gasoline when measured on an energy equivalent basis. Unlike other studies of GHG benefits, which relied on forecasts of future ethanol production systems and expected impacts on the farm sector, this study reviewed how the industry and farm sectors performed over the past decade to assess the current GHG profile of corn-based ethanol.

"This report provides evidence that corn ethanol can be a GHG-friendly alternative to fossil fuels, while boosting farm economies" said Vilsack.

This report found greater lifecycle GHG benefits from corn ethanol than a number of earlier studies, driven by a variety of improvements in ethanol production, from the corn field to the ethanol refinery. Farmers are producing corn more efficiently and using conservation practices that reduce GHG emissions, including reduced tillage, cover crops and improved nitrogen management. Corn yields are also improving—between 2005 and 2015, U.S. corn yields increased by more than 10 percent.

Between 2005 and 2015, ethanol production in the U.S. also increased significantly—from 3.9 to 14.8 billion gallons per year. At the same time, advances in ethanol production technologies, such as the use of combined heat and power, using landfill gas for energy, and co-producing biodiesel helped reduce GHG emissions at ethanol refinery plants.

By 2022, given current trends, the GHG profile of corn-based ethanol is expected to be almost 50 percent lower than gasoline primarily due to improvements in corn yields, process fuel switching, and transportation efficiency.

The report also examines a range of factors that could enhance the GHG benefits of corn ethanol production and provides estimates of how those factors change ethanol's lifecycle GHG emissions. For example, the report examined the benefits of improving the efficiency of ethanol refinery plants and adoption of additional conservation practices on corn-producing farms. In a scenario where these improvements and practices are universally adopted, the GHG benefits of corn ethanol are even more pronounced over gasoline, about a 76 percent reduction.

There are several reasons this report found greater lifecycle GHG benefits from corn ethanol than a number of earlier studies. Previous estimates anticipated that growing corn to produce ethanol would result in "indirect land use change"—in other words, land would be converted from grasslands and forests to commodity production as a result of increased demand for corn used in ethanol production. But based on new data and research, there is compelling evidence that while land use changes have occurred, the actual patterns of changes and innovation within the farm sector have resulted in these indirect emissions being much lower than previously projected.

Recent studies of international agricultural land use trends show that that the primary land use change response of the world's farmers from 2004 to 2012 has been to use available land resources more efficiently rather than to expand the amount of land used for farming. Instead of converting new land to production, farmers in Brazil, India and China have increased double cropping, expanded irrigation, reduced unharvested planted area, reduced fallow land and reduced temporary pasture. Much of the international attention on supply of corn for ethanol has focused on Brazil, where earlier estimates anticipated conversion of rainforests to commodity production. But between 2004 and 2012, at the same time U.S. corn ethanol production increased more than 200 percent, deforestation in Brazil's Amazon decreased from 10,200 to 2,400 square miles per year.

The report also demonstrates the added GHG benefits of on-farm conservation practices like reduced tillage, nitrogen stewardship, and cover crops—the same practices outlined in USDA's Building Blocks for Climate Smart Agriculture and Forestry strategy, which aims to reduce GHG emissions by over 120 million metric tons of carbon dioxide equivalent per year by 2025.

Continuing to support adoption of these practices on farms will further reduce GHG emissions associated with agriculture—as well as benefiting the positive trends in lifecycle GHG balance of corn-based ethanol.

For a summary of the report findings see the USDA Factsheet: Lifecycle Greenhouse Gas Emissions of Corn-Based Ethanol

Read the full USDA study here

Read the original release: USDA Releases New Report on Lifecycle Greenhouse Gas Balance of Ethanol

Ethanol Producer Magazine

January 11, 2017

By Erin Voegele

The U.S. ethanol industry opened 2017 with a new weekly production record. Production reached an average of 1.049 million barrels per day the week ending Jan. 6, according to data released by the U.S. Energy Information Administration. The new record replaces one set the final week of 2016, when ethanol production reached an average of 1.043 million barrels per day the week ending Dec. 30.  

The U.S. ethanol repeatedly broke records for ethanol production in 2016. Prior to Dec. 30, the record was set the week ending Dec. 9, when production averaged 1.04 million barrels per day.

The U.S. ethanol industry has surpassed the 1 million barrel per day mark only 25 times, all since November 2015. Prior to November 2015, the ethanol production record sat at 994,000 barrels per day, which was set the week of June 19, 2015.

Read the original story: US Ethanol Industry Opens 2017 with Record-Setting Production

West Central Tribune

January 10, 2017

By Tribune News

Pending the outcome of an environmental review, Bushmills Ethanol Inc. near Atwater will expand its facilities and increase annual production of denatured ethanol from 65 million gallons a year to 100 million gallons.

Public comments on the project will be accepted until Feb. 8.

Bushmills, a cooperative comprised of 415 farmers, owns a dry mill plant about 1½ miles west of Atwater that began operating in December of 2005.

The proposed expansion, which includes four new 730,000-gallon fermenters and several smaller above-ground storage tanks to be built on the plant's nearly 81-acre site, would add 3.3 acres of new impervious surface to the facility site.

According to the worksheet, the existing ponds on the Bushmills property are large enough to handle additional stormwater runoff.

The amount of corn processed at the plant would increase from 25 million to 38.5 million bushels per year and the amount of water used at the plant would go from 216 million gallons to 225 million gallons per year.

Besides increasing local demand for corn and production of ethanol by 35 million gallons a year, the proposed project would also increase production of dried distillers grain and wetcake that would benefit local livestock farmers, according to Bushmills.

As required by state rules, the Minnesota Pollution Control Agency prepared an environmental assessment worksheet on the proposal that provides basic information about how the project could potentially affect the environment.

The worksheet also helps determine whether a more comprehensive environmental review is needed.

The worksheet for the project is available on the MPCA's environmental assessment worksheet web page; at the MPCA Willmar office, 1601 U.S. Hwy. 12 E.; at the Willmar Public Library, 410 Fifth St. S.W.; or by calling Kevin Kain at 651-757-2482.

The public may submit written comments on the project until 4:30 p.m. Feb. 8.

Written comments may be sent via email to This email address is being protected from spambots. You need JavaScript enabled to view it., or mailed to him at the MPCA, 520 Lafayette Road N., St. Paul, MN 55155-4194.

Read the original story: Bushmills Ethanol Plans Expansion Pending MPCA Review

Syngenta

January 6, 2017

Press Release

MINNETONKA, Minn., USA – Syngenta today announced that it has reached agreements with ethanol plants, from Arizona to Ohio, with a combined total capacity of nearly 2 billion gallons.

According to Dr. Miloud Araba, head of Enogen® technical services at Syngenta, the robust alpha amylase enzyme found in Enogen corn hybrids helps an ethanol plant dramatically reduce the viscosity of its corn mash and eliminate the need to add a liquid form of the enzyme.

“This breakthrough viscosity reduction can lead to unprecedented levels of solids loading, enabling increased throughput and yield, as well as significant cost savings from reduced energy, water, natural gas and chemical usage in ethanol plants,” Araba said.

Golden Harvest® and NK® Corn growers who plant Enogen corn benefit as well – they can earn up to 40 cents per bushel when contracted Enogen grain is delivered to the ethanol plant.

“This is particularly significant given current commodity prices,” said Marcos Castro, Enogen marketing manager at Syngenta. “We expect the total premiums earned by Enogen growers to be approximately $32 million in 2017, creating real advantages for growers and rural economies.”

Improved ROI potential on ethanol acres

Approximately 40 percent of the U.S. corn crop is used to produce ethanol.1 Syngenta offers the Ethanol Grower Advantage program to help increase potential for a better return on investment on ethanol acres, help increase grower profitability and help plants produce more ethanol per bushel. “The Ethanol Grower Advantage program incentivizes and rewards agronomic best practices, helping growers to achieve consistently higher yields and earn premiums while delivering higher-quality, locally sourced grain to participating ethanol plants,” Castro added. “Participating growers are eligible to receive up to a 10-cent premium for each bushel of Golden Harvest, NK and/or Enogen corn delivered to a participating ethanol plant. This complements the existing premiums that can be earned by Enogen growers and further demonstrates our commitment to ethanol.”

Growers as enzyme suppliers

Enogen is rapidly gaining popularity because of the value it delivers and the opportunity it provides corn growers to be enzyme suppliers for their participating local ethanol plants. Numerous trials have shown that Enogen hybrids perform equal to or better than other high-performing corn hybrids.2

“The agreements we have in place with a steadily increasing number of plants will enable them to source alpha amylase directly from growers and keep enzyme dollars in those local communities,” said Ron Wulfkuhle, head of Enogen at Syngenta. “This is what truly sets Enogen corn apart from other technologies designed to enhance ethanol production. It adds significant incremental value at the local level for communities that rely on their ethanol plant’s success.”

The future of fuel

Looking ahead, Wulfkuhle added that the combination of Cellerate process technology and Enogen corn will help ethanol plants increase efficiency even further. Cellerate converts corn kernel fiber into cellulosic ethanol and can help plants produce more ethanol from the same kernel of corn, increase total yield of distillers corn oil and improve the protein content of feed co-products. Trials at Quad County Corn Processors (QCCP) demonstrated as much as a 26 percent increase in in production when Cellerate process technology and the use of Enogen corn were combined.3

“We believe that not only will Cellerate process technology help make advanced and cellulosic ethanol a reality, but the combination of Cellerate and Enogen could represent the next step forward for ethanol production,” Wulfkuhle said.tent of feed co-products. For more information about Enogen corn enzyme technology, visit www.EnogenCorn.com. To inquire about incorporating Enogen into an ethanol plant, contact Tim Tierney, head, Enogen business accounts, at This email address is being protected from spambots. You need JavaScript enabled to view it. or 612-801-9775. Join the conversation online – connect with us at social.SyngentaUS.com.

About Syngenta
Syngenta is a leading agriculture company helping to improve global food security by enabling millions of farmers to make better use of available resources. Through world class science and innovative crop solutions, our 28,000 people in over 90 countries are working to transform how crops are grown. We are committed to rescuing land from degradation, enhancing biodiversity and revitalizing rural communities. To learn more visit www.syngenta.com and www.goodgrowthplan.com. Follow us on Twitter at www.twitter.com/Syngenta and www.twitter.com/SyngentaUS.

Read the original story: Syngenta Grows Enogen® Corn Footprint, With Total Ethanol Production Capacity Now Approaching 2 Billion Gallons