[Due to the increasing size of the archives, each topic page now contains only the prior 365 days of content. Access to older stories is now solely through the Monthly Archive pages or the site search function.]
DOE to issue funding opportunity for bioenergy technologies; outliers to current multi-year program plan
February 13, 2014
The US Department of Energy (DOE) Office of Energy Efficiency and Renewable Energy (EERE) intends to issue, on behalf of the Bioenergy Technologies Office (BETO), a Funding Opportunity Announcement (DE-FOA-0000974) entitled “Bioenergy Technologies Incubator”.
BETO’s mission is to engage in R&D and demonstration at increasing scale activities to transform renewable biomass resources into commercially viable, high-performance biofuels, and bioproducts and biopower that enable biofuel production. To accomplish this mission, BETO develops a multi-year program plan (MYPP) to identify the technical challenges and barriers that need to be overcome. These technical challenges and barriers form the basis for BETO to issue funding opportunities announcements (FOAs) for financial assistance awards in these specific areas.
Ford brings cellulose fiber reinforced thermoplastic to 2014 Lincoln MKX
December 20, 2013
|Early version of CRP-based armrest piece under development. Source: Weyerhaeuser. Click to enlarge.|
A three-year collaboration between Lincoln, Weyerhaeuser and auto parts supplier Johnson Controls has resulted in the creation of a tree-based, renewable alternative to fiberglass for use in auto parts. (Earlier post.) The 2014 Lincoln MKX features the use of Cellulose Reinforced Polypropylene (called “THRIVE” composites by Weyerhaeuser) in the floor console armrest substrate—a structural piece located within the center console armrest.
Pieces made from CRP are roughly 6% lighter, and decrease the reliance on less-environmentally friendly fiberglass parts. The use of Cellulose Reinforced Polypropylene in the MKX, while relatively small, marks an advancement that has the potential to play a more impactful role in the future, suggested Dr. Ellen Lee, plastics research technical expert for Ford Motor Company. Ford engineers are using the company’s development and deployment of soy-based foam as an model—i.e., starting out small, then improving the material and widening the application.
DSM and KACO develop crankshaft cover made in bio-based EcoPaXX polyamide 410 for next-gen VW diesels
September 02, 2013
|Crankshaft cover. Click to enlarge.|
Royal DSM, together with its automotive component specialist partner KACO, has developed a lightweight multi-functional crankshaft cover in EcoPaXX, DSM’s bio-based polyamide 410, for the latest generation of diesel engines developed by the Volkswagen Group. EcoPaXX, a bio-based, high-performance long-chain polyamide, is made mainly from tropical castor beans.
This EcoPaXX cover incorporates integral seals in PTFE and liquid silicon rubber (LSR), as well as various metal inserts. It will be used on Volkswagen’s new MDB modular diesel engine platform, implemented across its Audi, Seat, Škoda and VW brands.
DSM’s Stanyl and EcoPaXX polyamides used in SIM-CEL electric concept car to reduce weight
May 15, 2013
|DSM’s Stanyl and EcoPaXX are used in the new SIM-CEL EV prototype. Click to enlarge.|
SIM-Drive Corporation, founded by Hiroshi Shimizu and based in Kawasaki City, Japan, unveiled the SIM-CEL on 27 March—the third prototype of an advanced all-electric car incorporating in-wheel motors that the company has developed since it was founded in 2009. SIM stands for Shimizu In-wheel Motor, and CEL stands for Cool Energy Link.
Rennovia demonstrates production of HMD from renewable feedstocks; enabling production of 100% renewable nylon-6,6
April 25, 2013
Rennovia, Inc., a privately held company that develops novel catalysts and processes for the cost-advantaged production of chemical products from renewable feedstocks, has successfully demonstrated production of hexamethylenediamine (HMD) from widely available, renewable feedstocks. Coupled with Rennovia’s previously announced renewable adipic acid, this enables for the first time the production of 100% bio-based nylon-6,6 from monomers derived from bio-renewable feedstocks using chemical catalytic technology.
Nylon-6,6 is used extensively in automotive applications, where it is especially prized for its heat resistance, enabling under-the-hood applications. Nylon-6,6 is also widely used in fiber applications, including textiles, carpet, technical fiber, and tire cord.