The Bioenergy Knowledge Discovery Framework (KDF) is an online collaboration toolkit and data resource providing access to the latest research on bioenergy. The site supports the creation of a robust, advanced, domestic bioenergy industry for the United States, offering resources for researchers, private industry, policy makers, and the public. In the KDF, users can:
- Search the Bioenergy Library to find datasets, publications, and models on a wide variety of bioenergy topics.
- Use the map interface to visualize, analyze, download, and export geospatial data.
- Browse the site’s collection of specialized Tools & Apps, which can also be launched on the map.
The Bioenergy Library contains hundreds of publications, datasets, and models specifically related to the production, distribution, delivery, and end use of bioenergy. Many of the Bioenergy Library publication records include abstracts and links to full-text content. Additionally, users can add data to certain datasets and visualize them on the KDF map. Registered users also have the ability to comment on entries and share links with others via email and social networking sites.
Read the full story from the Agricultural Research Service.
There was a time when a green mat of algae was little more than pond scum—but no longer. Now, thanks to advances in science and technology, these microscopic plants are considered promising natural sources of oil that can be converted to biodiesel fuel.
At the Daniel K. Inouye U.S. Pacific Basin Agricultural Research Center in Hilo, Hawaii, Agricultural Research Service (ARS) plant pathologist Lisa Keith has spent the past 5 years fine-tuning conditions under which Chlorella protothecoides algae can be coaxed into producing oil from discarded papayas and other unmarketable crops or byproducts, like glycerol. The effort is part of a zero-waste system being championed and supported by the Hawaii Department of Agriculture (HDOA) to ease the Island State’s reliance on imported oil for its fuel and energy needs.
Read the full story in FutureStructure.
Although the alcohol-based fuel provides a decent energy return, it’s less efficient than regular fuel.
Read the full story in Algae Industry Magazine.
Researchers have developed a new inexpensive and environmentally friendly technique to deliver carbon dioxide to microalgae, according to a study at the University of Melbourne. The technique involves a novel combination of solvent absorption, membrane desorption and microalgal cultivation to capture carbon dioxide and convert it to a lipid-rich biomass.
Read the full story at FutureStructure.
The ships will be powered with biofuels made out of beef fat, municipal waste, palm oil, algae or camelina, a plant in the mustard family.
Read the full story from Rice University.
The molecules that impart strength to paper, bamboo and wood-frame buildings — lignin and cellulose — have long stymied biofuels researchers by locking away more than half of a plant’s energy-yielding sugar. In a study that could point the way to biofuels processes of the future, scientists from Rice University, the Great Lakes Bioenergy Research Center at the University of Wisconsin-Madison and the Joint BioEnergy Institute at Emeryville, Calif., have discovered how two bacterial enzymes work as a team to break apart lignin.
Read the full story from the University of Illinois.
Second-generation biofuel crops like the perennial grasses Miscanthus and switchgrass can efficiently meet emission reduction goals without significantly displacing cropland used for food production, according to a new study. Researchers from the University of Illinois and collaborators published their findings in the inaugural edition of the journal Nature Energy. The researchers call it the most comprehensive study on the subject to date.