A military installation in Upstate New York is now being powered by its own biomass power plant. This article from the Watertown Daily Times says Fort Drum is now officially connected to its on-post ReEnergy biomass plant.
“We’re the only post in the Army that’s self-reliant for energy right now,” Maj. Gen. Jeffrey L. Bannister, the 10th Mountain Division’s commander, said during a media round-table on post Thursday.
He noted the plant was one area in which the post relied on the community to be more cost-efficient.
The direct connection work, ensuring that all power systems interacted correctly, was estimated to cost about $12 million. ReEnergy CEO Larry D. Richardson said the project was a complex effort that required coordination among the Army, the post, National Grid and its own engineers.
“This is not a typical project that’s done every day,” Mr. Richardson said.
He said the direct connection from the plant to the post’s substation was a milestone for the company.
A year ago, the military inked a 20-year, nearly $300 million contract with ReEnergy, the largest such deal in Army history. The biomass plant replaced a coal-fired plant on the post.
More information on growing switchgrass and turning biomass into energy will be available today as Penn State Extension, Ernst Biomass, and the PA Biomass Energy Association hold a free open house and tour of the biomass production and pelleting facility at Ernst Biomass in Meadville, Pennsylvania, starting at 12:30 pm today.
– See new varieties of switchgrass being tested for this region.
– Visit the largest grass-pellet plant in the Northeast.
– Tour the seed processing and storage facilities used for over 400 varieties of biomass and conservation plants.
– Check out educational displays on biomass and energy.
– Have a cup of coffee and share your questions and ideas with renewable energy specialists.
More information is available here.
This year during the Expo Milano New Holland announced its “heros” as part of its “Seeds of Life Series“. One such hero was Brazilian Victor Campenelli, who grows 37,000 acres of corn and sugarcane and also has a cattle operation in Southern Brazil. Looking in to the future, Victor is looking forward to building a power plant utilizing cane straw.
He works as part of his family business dating back to 1982. Since 2002 their main crops are sugarcane, cattle and corn. He was proud to be a winner because he feels that it helps farmers in his country gain more respect for the work they do to feed, fuel and power the country.
Victor also noted that one thing Brazil hasn’t really capitalized is producing power from biomass. They have completed a project where the plant is able to produce 30 MW per hour and about 240,000 MW per year just using cane straw, a material he said is like trash, its just left behind on the field. He added that it’s good for the land because they only take a portion of the biomass from the field and the remaining cane straw puts organic matter back in the soil and protects from erosion.
There are plans to develop additional power plants using cane straw.
Listen to Cindy interview with Victor Campenelli here: New Holland Hero Victor Campanelli from Brazil
2015 New Holland Heroes & Bloggers Days
Ek Laboratories, located in Longwood, Florida, has achieved a 63 percent conversion of Coastal Hay, at commercial scale, into fermentable sugars in less than 30 minutes. The Alliance BioEnergy Plus subsidiary used it licensed and patented mechanical/chemical CTS (Cellulose to Sugar) process.
According to Ek Laboratories, unlike most cellulose to sugar technologies, their CTS process does not use liquid acids, applied heat or pressure, enzymes, super critical waters, expensive precious metal lined with equipment or any hazardous materials. The company also says that also unlike other CTS processes, their technology can covert virtually any cellulose material into fermentable sugars in one step in just minutes.
As such, says Ek Laboratories, for the first time, biofuel producers will be able profitably produce cellulosic ethanol, diesel and other biofuels without subsidies.
“We have completely redesigned and custom manufactured the mill and went from 1g in the lab to a mill capable of processing 2,500kg (2.5mt) a day, in a single leap, while seeing the efficiency and conversion rates increase and energy consumption decrease,” explains Dr. Peter Cohen, Director of Analytics at Ek Labs. “Unlike traditional chemical processes or industrial scaling, this is a mechanical process where the chemistry happens thousands of times at a micro scale by a kinetic process therefore aided by size and increased impact pressure.
Cohen noted that they should see 70 to 80 percent conversion rates by the time they are finished with the first commercial plant for sub-license RRDA in early 2016. The plant is in construction in Georgia and will convert 1,000mt a day of yellow pine waste and Vidalia onion waste. He added that existing plants can easily be converted to the CTS process.
Aemetis has announced the harvest of sorghum grown in Central California that grew between 12-15 feet tall. The 20 acre demonstration crop was grown using proprietary Nexsteppe seed genetics and harvested in 90 days by Aemetis. The water supply for the sorghum was lower quality pump water containing salts that typically damage crops in western San Joaquin Valley, an area with little water allocation for ag crops. The sorghum will be used to produce advance biofuels.
“Nexsteppe’s sorghum is uniquely capable of growing a large amount of biomass in a short period of time using land that lacks quality water and where other plants may not grow,” said Eric McAfee, Chairman and CEO of Aemetis. “Biomass sorghum can be converted to cellulosic ethanol or a variety of other renewable fuels through various available technologies. Aemetis has already processed about 80 million pounds of grain sorghum at its Keyes biorefinery, producing lower-carbon fuel ethanol.”
The company is also a participant of the California In-State Sorghum program (CISS) through a $3 million grant awarded by the California Energy Commission. The CISS program combines research and market development to support the in-state growth of grain sorghum as a reliable low-carbon feedstock for California’s ethanol producers. The CISS program has just completed the first harvest of grain sorghum at the CSU Fresno International Center for Water Technology.
Aemetis’ 60 million gallon per year ethanol plant in California converts sugars to biofuels. The company has a multi-year strategy to transition its biofuel production from traditional starch-based feedstocks to renewable biomass feedstocks that can produce low-carbon, advanced biofuels. The transition is expected to evolve from corn to grain sorghum and ultimately to biomass sorghum and agricultural wastes available in California.
Anna Rath, CEO of NexSteppe, added, “Growing high-yield biomass sorghum in California is a milestone in the production of low-carbon feedstocks for biofuels. NexSteppe is focused on designing industrial sorghum feedstock solutions to support the growing biobased economy.”
Studies have found that wood-based UPM BioVerno significantly reduces harmful tailpipe emissions. Several engine and vehicle tests were conducted by a number of research institutes including VTT Technical Research Centre of Finland, University of Vaasa in Finland and at FEV, an internationally recognized vehicle engineering company based in Germany.
The Finnish company’s renewable diesel functions just like conventional diesel in all diesel engines yet it generates up to 80 percent less greenhouse gas emissions during its lifecycle compared to conventional fossil diesel fuels, as found by the research.
According to the study, the renewable diesel also reduces harmful tailpipe emissions including particle mass, hydrocarbon, carbon dioxide, nitrogeous oxide and carbon monoxide emissions, but the percentage of reduction varied based on vehicle technology and blend. However, all tests demonstrated similar or improved efficiency of the engine, without compromising the engine power, when UPM BioVerno was introduced to the fuel blend. In addition, it was found that by using 100 percent UPM BioVerno diesel fuel consumption decreased.
FEV Germany carried out a series of tests on UPM BioVerno’s effect on engine functionality and emissions with both a diesel blend containing 30 percent UPM BioVerno and 100 percent UPM BioVerno diesel. In addition to measuring engine output and fuel consumption, the tests focused on tailpipe emissions and the performance of UPM BioVerno compared with conventional diesel.
“UPM BioVerno renewable diesel was investigated in a screening campaign at FEV Germany. The results showed that even as a 30% blending component, the accumulated HC emissions were reduced by more than 50% and the CO emissions by more than 40% compared to reference fossil diesel. Our tests also showed good results in NOx emissions and efficiency,” said Dr. Ing Thorsten Schnorbus, manager passenger car diesel, FEV.
UPM BioVerno was also tested in University of Vaasa, Finland using a heavy duty engine. These experiments were performed in the Technobothnia Education and Research Centre in Vaasa.
New research from the University of Washington is laying the foundation to use woody biomass from poplar trees into sustainably produced biofuels and biochemicals. A five-year $40 million dollar study funded by the U.S. Department of Agriculture (USDA) is in its last year and results will seed a wood-based cellulosic ethanol production facility.
Poplar materials, including bark, leaves and wood, are used to make cellulosic ethanol.Dennis Wise/University of Washington
ZeaChem, one of the industry partners in the study, is moving ahead with plans to build a commercial production facility in Boardman, Oregon, in 2016 that will produce cellulosic ethanol and biochemicals from poplar trees grown specially for those industries.
“We’ve established that poplar is a viable and sustainable feedstock for the production of fuels and bio-based chemicals,” said Rick Gustafson, a UW professor of bioresource science and engineering, who leads the project. “We’ve provided fundamental information that our industry partners can use to convince investors that production of fuels and chemicals from poplar feedstock is a great investment.”
The research team is known as the Advanced Hardwood Biofuels Northwest and they have set up five demonstration tree farms with different varieties of poplar. None of the trees is genetically engineered, but instead researchers bred them to thrive in different environments and to grow fast. The trees can gain up to 20 feet a year, allowing for a harvest every two or three years.
When a poplar tree is cut, its stump naturally sprouts new shoots and the next generation of trees grow out of the parent stumps. Each tree can go through about six cycles of this regrowth before new poplars must be planted, explained Gustafson. Continue reading
According to new research, global biofuels capacity will grow to 61 billion gallons per year (BGY0 by 2018. Ethanol and biodiesel will continue to dominate with 96 percent of the capacity in 2018, but novel fuels and novel feedstocks will be major drivers of capacity growth, according to Lux Research.
The study finds that novel fuels and novel feedstocks will grow at a rate of 27 percent and 16 percent compound annual growth rate (CAGR), respectively, through 2018. Ethanol and biodiesel will grow at a slower 2 percent rate but will reach capacities of 40 BGY and 19 BGY, respectively.
“While ethanol and biodiesel dominate global biofuel capacity today, limits on their growth mean that novel fuels like renewable diesel, biojet fuel and biocrude are crucial to the future of the industry,” said Victor Oh, Lux Research Associate and lead author of the report titled, “Biofuels Outlook 2018: Highlighting Emerging Producers and Next-generation Biofuels.”
“Producers also need to tap into novel feedstocks like waste oils, non-edible biomass, and municipal solid waste to push the industry beyond food-vs.-fuels competition,” he added.
Lux Research analysts studied growth of biofuels utilizing an alternative fuels database of over 1,800 production facilities globally. Among their findings:
- Waste oils will dominate next-generation biofuels. With a 52% share, biodiesel made from novel feedstock, specifically waste oils, will lead novel fuels capacity in 2018. Cellulosic ethanol and renewable diesel follow with 19% and 18%, respectively.
- Americas continue dominance. With a 64% share of global biofuels capacity, the Americas are a dominant force. The region, led by the U.S. and Brazil, also leads in utilization of global production capacity with 86%, much higher than the global average of 68% in 2014.
- Eight countries are biggest emerging producers. China, Indonesia and Thailand in Asia; Colombia and Argentina in the Americas; and Portugal, Poland and France in Europe are the biggest emerging production centers for biofuels after the U.S. and Brazil.
While England might be better known for its tea, Londoners certainly have a taste for coffee. And the waste grounds will soon be heating home’s in the United Kingdom’s capital. This article from the London Evening Standard says Bio-bean is collecting waste coffee grounds to be turned into biomass pellets.
Although only a couple of hundred tonnes will be collected each week at first, Bio-bean spokesman Daniel Crockett expects the firm to be processing the equivalent of 50,000 tonnes a year by 2016.
“We wanted to build it inside London,” Mr Crockett told the Standard, “but we aren’t at that stage yet.
“We’re collecting from cafes, office blocks and transport hubs – we’re filling up the Monopoly board!”
While Bio-bean does not pay the coffee shops – which include cafes in big-name firms and all seven of London’s biggest rail stations – its collection service saves them coughing up potentially costly landfill fees.
At peak production, the Southwark business will be producing enough pellets to heat 15,000 homes. The pellets will be burnt in efficient biomass boilers to produce energy.
Bio-bean is also looking at turning the oil in the coffee grounds into biodiesel.
A collaboration between three companies looks to create the world’s first sustainable biomass fuel to replace coal. Manufacturing and innovation leader Munro & Associates is working with with Biomass Energy Enhancements LLC (BEE) and UK-based and AIM-listed Active Energy Group Plc (AEG) to produce a market-ready sustainable biomass fuel that would be able to directly replace coal without retrofitting the plant.
Other processes that have been used in the past, such as simple compaction and thermal drying, either leave a high level of toxic salts in the biomass creating pollution and frequent maintenance issues or leave too much intercellular moisture reducing the effective energy release from the fuels. BEE’s process “explodes” the fibers like popcorn and exposes the intra-fiber moisture and soluble salts which can then be easily removed. This new process allows biofuels to be generated from materials that would not have been suitable or viable before, such as reclaimed waste wood, and diseased and invasive crops or trees.
A further benefit is that the final product is also hydrophobic, which not only prevents possible reabsorption of moisture that would degrade the fuel, but it subsequently reduces distribution, transportation and storage costs.
Although Munro has worked on several new technologies over the years, rarely does the company make the leap to actually invest in the technologies as well,” said Sandy Munro, CEO of Munro & Associates. “This process has the potential to revolutionize the industry and we are very proud to be a part of the Coal Switch Team.”
Munro’s engineers worked with the BEE team to create a highly scalable, mobile and “flexible in the field” process that can be moved anywhere in the world. This creates a massive savings in regards to moving the raw potential biomass to a facility, rather than move the scalable facility easily and cheaply to set up onsite.
Munro officials say its proprietary Design Profit software has allowed the company to scale up a prototype to a market-scale winning solution.