News and Trends

http://www.sciencedaily.com/releases/2006/08/060820192106.htm

The use of marginal lands for biofuel crop plantations is seen as a move to increase the land base of biofuel crops as the future demand of the commodity increases. Biofuels crops can be planted in abandoned industrial land sites, rendered marginal/unproductive by soil contamination with industrial pollutants for two objectives: biofuel feedstock production and bioremediation. Bioremediation, the use of plants to remove or degrade contamination from soils and surface waters, has been proposed as a cheap, sustainable, effective and environmentally friendly alternative to conventional remediation technologies.

Scientists at Michigan State University (MSU), in partnership with Daimler-Chrysler, are exploring the possibility of utilizing industrial landsites (“brownfields”) for growing corn and switchgrass as bioethanol feedstocks, and soybeans, sunflower and canola as biodiesel oilseed crops.

The study area is a former industrial dump site in Oakland County. The team, lead by MSU professor, Kurt Thelen, is determining whether crop yields are sufficiently high to make the strategy viable. At the same time, they are also investigating whether biofuel crops can remove contaminants from the soil, and whether this remediation capability affects the quality of the crops for biofuels use..


http://news.mongabay.com/2006/1205-switchgrass.html

Dr. Albert Kausch, a plant geneticist from the University of Rhode Island, says that genetic engineering of switchgrass as bioethanol feedstock could significantly reduce the cost of ethanol production from the present $2.70/gallon to $1/gallon. Switchgrass has several advantages for the use as bioethanol feedstock, including the ability to grow in marginal soils with little agricultural inputs like fertilizer, irrigation and insecticides. However, the slow breakdown rate of the cellulose content prior to ethanol fermentation of unaltered switchgrass, limits the commercial profitability of this crop for ethanol production. At present, Dr. Kausch is working with professors at Brown University to develop better enzymes for cellulose degradation in switchgrass, and hopes to come up with improved varieties by 2011..


http://newsinfo.inquirer.net/breakingnews/nation/view_article.php?article_id=34334
http://www.platts.com/Oil/News/8755390.xml?S=printer&sub=Oil&p=Oil/News&

The Philippine’s Biofuels Bill has finally been approved in a joint bicameral (Senate and Congress) committee. The bill provides for the mandatory use of biofuel blends in gasoline and diesel fuels. At least five percent ethanol blend in gasoline is targeted within two years of effectivity of the bill, and then increased to ten percent four years after the passage of the law. A minimum of one percent of biodiesel blend is also mandated upon effectivity of the law’s implementing rules and regulations; this would be increased to two percent within two years.

Presently, gasoline with ethanol and diesel fuel blended with coconut-based biodiesel are sold in the Philppines, but only on a voluntary basis. The passage of the law is expected to fuel the construction of bioethanol and biodiesel plants in the country. Biofuel crops will be sugarcane, cassava, and corn as the feedstocks for bioethanol production, while coconut will be used to produce biodiesel. Among the benefits from the passage of the bill are: (1) an annual savings of about 35 billion pesos (roughly $700M) in fuel imports, (2) increased employment (3) increase in farmer income, and (4) improved air quality.

Energy Crops and Feedstocks for Biofuels Production

http://www.sardi.sa.gov.au/pages/organisation/media_products
/media_releases/2006/biofueljuly_20_2006___micro.htm:sectID=1179&tempID=1

Researchers from the South Australian Research and Development Institute (SARDI) are undertaking research programs on the culture of microalgae for biodiesel production. Microalgae are an attractive feedstock for biodiesel production because is its oil producing efficiency (up to 30 times higher per unit area of land relative to oil seed crops), and they can be cultured in poor quality saline water or effluents with high nutrient load. It is also said to contain a total oil content of 60% to 70% (dry weight basis). In addition to microalgae, SARDI is also looking into development of other feedstocks for biodiesel like canola and mustard..


http://www.oilgae.com/algae/oil/yield/yield.html

Oilgae.com is a website containing interesting and useful information for researchers, students, traders and manufacturers who are interested in algae-based oils for biofuels. Among the information available are: (1) dry weight compositions/oil content of some algal species, (2) oil composition of algae relative to seedoils, (3) genetic engineering of algae to increase oil production, (5) large scale algae biodiesel production, (6) the Biodiesel Algae Reference..


http://www.hort.purdue.edu/newcrop/duke_energy/dukeindex.html

This site by provides useful information on about 200 plant species which can be used as energy crops. Although only the scientific names of the plant species are provided, the information is detailed and comprehensive.

Biofuels Processing

http://web.searca.org/elibrary/adss%20presentations/Diaz-Coco_biodiesel.pdf

A paper by R.S. Diaz, Jr. and F.C. Galindo of the Asian Institute of Petroleum studies describes the reasons why or coconut methyl ester (CME), derived from coconut oil, is close to that of an ideal diesel fuel. An ideal diesel fuel is said to be 100% n-paraffins (saturated hydrocarbons), which gives its chemical stability (i.e., not prone to oxidation or bacterial degradation), easy burnability and low nitrogen oxides (NOx) emissions. The paper reports that CME is 91% saturated, which makes it very close to an ideal diesel fuel. A comparison of CME with other biodiesel fuels from palm oil, Jatropha and soybean is also shown..

Biofuels Policy and Economics

http://www.fas.usda.gov/pecad/highlights/2004/07/WorldBiodiesel/index.htm

According to the Production Estimates and Crop Assessment Division, Foreign Agricultural Service of the U.S. Department of Agriculture, world interest and demand for biodiesel production (for motor and heating fuel) is increasing. Europe is said to be the main area for large volume production, and is still expanding. Brazil’s Probiodisel Program is looking into oilseed feedstock like soybean, palm, coconut, castor seed, cottonseed and sunflower. Soybean is reportedly the main commodity in Brazilian oilcrop production and is well advanced in research. Although it is seen as the most likely viable option for a biodiesel industry, other options in the country’s North and Northeast are being considered. These options include castor and palm oils.

The Philippines is mentioned as the first country to develop coconut oil (including coconut oil methyl esters) for use as transport fuel. Presently, the use of one percent coconut biodiesel blends is required for use in government vehicles. In the United States, soybean is the main feedstock for biodiesel production. Biodiesel service stations are available in some States, and some vehicles are also reported to run on biodiesel..

Document Release/Resources

http://www.hartenergy.com/images/renewablefuels.pdf

The document provides a comprehensive review of biofuels policy initiatives in selected countries in Asia Pacific, Europe and the Americas. According to Hart Energy Consulting, who produced the document, “critical factors influencing demand such as public policy initiatives, vehicle compatibility and the interface with conventional fuel quality specifications are reviewed, together with the proposed production capacity to forecast the apparent various biofuel supply/demand balances in the world-wide gasoline and diesel fuel markets, for the period 2005 – 2010”..