Fuel Synthesis Using Pine Needles as Biomass

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Presentation transcript:

Fuel Synthesis Using Pine Needles as Biomass Alexandra Fuentes, Sierra Carlson, and Dr. Kenneth Frost PhD (Faculty Advisor) Department of Natural Sciences and Mathematics, Dominican University of California, San Rafael, CA 94901 Abstract This project explores the alternate uses of biomass. In particular, it focuses on pine needles as a source for biofuels. Pine needles are of interest because in certain Mountain communities they are collected and removed from residential properties. By removing the pine needles, communities create a “defendable space” to prevent wild fires from destroying homes.  These needles are often placed in regional landfills.  The South Tahoe Refuse and Recycling Services alone has more than 4,340 tons of pine needles dumped at their facility annually. This large amount of biomass can be a potential energy source. The focus of this research is on the pyrolysis of the pine needles to create synthesis gas and other bi-products.  This process also produces a complex mixture of viscous liquid products containing furan, furfural, and other dehydration products from sugar decomposition.  A large portion of the material that remains after pyrolysis is biochar.  The products will be the subject of future research. The research currently focuses on the gaseous products.  With Fischer Tropsch technology applied, it should be possible to oligomerize this gas to methanol and higher carbon number products. Later they could be used directly in gasoline as supplemental fuel components.  The components will reduce the carbon footprint of gasoline without raising the ethanol content of the fuels above the threshold level of 15%; a level above which many automobile manufactures refuse to recommend for their vehicles.  To demonstrate the feasibility of this process we will discuss research done with an iron based Fischer Tropsch supplied to us from Emerging Fuels Technology, Tulsa, OK and synthesis gas models of hydrogen and carbon monoxide.  Extensions to pine needle gas will also be discussed. Methods This experiment was born from the hypothesis that the pine needles can be used as a form of biomass when synthesizing biofuels. For the first half of the experiment, we took ~7.5 grams of thoroughly blended pine needles, and put them through the process of pyrolysis with a Nitrogen purged apparatus. Gas was formed by the heating the pine needles in the absence of air, the gas mixture was then sent through an apparatus essentially causing water displacement allowing the capture of the synthetic gas in pre-weighed gas bladders. As a bi-product of this pyrolysis a viscous liquid was collected in a pre-weighed flask. Once pyrolysis was complete, the gas was released through a tube and ignited using a match. The second half of the experiment consisted of taking our pre-weighed containers and reweighing them to determine the amount of product collected. Typically we a produced ~1.75g of syngas, with ~2.23g of viscous bi-product, and ~3.5g of biochar. After the masses were recorded we injected an aliquot of our gas sample into an infrared gas cell. Using the IR we captured the spectra of our syngas and byproduct. Using the IR we were able to determine the components of our products. Conclusions and Future Work Our bi-product contains furan, furfural, and other dehydration products from sugar decomposition. The syngas is believed to contain hydrogen, carbon monoxide and low MW hydrocarbons that may be used directly or with further treatment. These products are the subject of our future research. In future endeavors we are aiming to apply Fischer Tropsch technology to produce components that can later be directly used in gasoline. Typical IR spectra for our bi-product. CO CO2 CH bending Syngas Input Acknowledgements We would like to thank Dominican University of California for offering their support through a travel grant. We would also like to thank Christopher Endicott for maintaining the FT-IR. And Dr. Kenneth AG from Emerging fuels and technology for his support. Typical IR spectra for our syngas.