Biofuels may present a promising alternative to the nation’s
existing fuel crisis, but before they can be widely adopted, a
series of technological hurdles must be overcome in order to
facilitate large-scale production, says Daniel Shantz, a chemical
engineering professor at Texas A&M University.
Working with 20 authorities from academia, industry, national
laboratories and federal funding agencies, Shantz developed an
extensive report detailing the complexities associated with biofuel
production and adoption.
“Developing New Paradigms for Biofuel Separations to Enable an
Alternative Fuels Future” was released this month and is based on
an NSF-sponsored workshop, co-facilitated by Shantz. The report,
Shantz says, is intended to serve as a research roadmap that will
help address the current issues associated with the thermochemical
conversion of biomass.
“In addition, our group hopes this report assists federal
agencies in setting funding priorities when it comes to this
beneficial area of research,” added Shantz who is co-editor of the
report along with Mukund Karanjikar of Technology Holdings.
According to the report, the issue of separations is critical to
large-scale production of biofuels.
“Separations technologies involve methods for extracting the
useful part of the biomass mixture,” Shantz explains. Biomass
refers to biological feedstocks including energy crops,
agricultural residues, trees, grass, manure, sewage sludge and even
household garbage.
The identification of transformative approaches is needed to
generate separation technologies that will enable large-scale
production, Shantz said. The report outlines a set of
recommendations for fundamental research themes required to meet
the associated challenges. Some recommendations from the
workshop include the development of next-generation materials to
achieve separations, the development of separation schemes at high
temperatures, and the development of low-energy approaches of
removing water from processed biomass streams.
At Texas A&M, Shantz is holder of the Ray Nesbitt
Development Professorship III. His lab is involved in materials
development, with particular emphasis in the development of
catalysts and membranes for use in alternative energy
production.
The full report can be downloaded at http://futurefuels.che.tamu.edu.
Individual presentations from workshop participants also are
available for download.
For more information, contact Daniel Shantz at 979.845.3492 or
via email: shantz@mail.che.tamu.edu.
Original Story