Dr. Steve Kelley is a Professor at North Carolina State University. His research interests include the sustainable production of energy and materials from biomass, and the application of novel analytical tools to biomass. He teaches classes in Wood Chemistry (FB 301) and Wood Adhesives and Composites (FB 444). In addition to his research and teaching, he has also helped develop international partnerships for the Department.
Prior to joining NCSU, he spent 13 years at the DOE’s National Renewable Energy Laboratory (NREL) working on biomass conversion technologies. At NREL his responsibilities included technical leadership and innovation in the areas of biomass characterization, production of value-added biobased products and thermal conversion processes, and project management. He left NREL as a Principal Scientist. Prior to joining NREL, he worked in industry (Eastman Chemical Co. and Bend Research, Inc.) for 7 years developing new cellulose-based materials and membrane processes.
Bioethanol from Wood Hemicelluloses (Jameel, Phillips, Chang, Kelley) This collection of projects involve the production of ethanol from hemicellulose sugars extracted woody biomass. The work includes wood extraction; characterization of the extracts and extracted wood; clean-up of the extracted sugars; ethanol production; technoeconomic modeling of the process.
Woody Biomass Quality Study (Hazel, Kelley)This collection of projects is focused on measuring the chemical composition and physical properties of many sources of woody biomass and developing an understanding on the biomass resource impacts the cost of converting the biomass into fuels and products.
Thermochemical Conversion of Woody Biomass (Jameel, Peretti, Dayton, Kelley)This work is focused on developing thermochemical process for converting biomass into fuels and products. This work includes a recent $3.2 million DOE funded demonstration project that includes work at NCSU, Research Triangle International (Dayton), and the University of Utah (Winger), that will demonstrate gasification of wood biomass, novel gas cleanup catalysts, and gas-to-liquids production.
Cellulose Based Materials (Rojas, Heitmann, Kelley) This work includes the preparation and characterization of cellulose polymers, copolymers and blends. In particular this work is focused on the molecular level mixing behavior of cellulose copolymers and blends of cellulose copolymers with other organic and inorganic polymers.
- ANATOMICAL, PHYSICAL, AND MECHANICAL PROPERTIES OF TRANSGENIC LOBLOLLY PINE (PINUS TAEDA L.) MODIFIED FOR INCREASED DENSITY (2019)
- Alkaline extraction and characterization of residual hemicellulose in dissolving pulp (2019)
- Anatomy and Chemistry of Populus trichocarpa with Genetically Modified Lignin Content (2019)
- Testing of anisole and methyl acetate as additives to diesel and biodiesel fuels in a compression ignition engine (2019)
- Analysis of North Carolina forest industry earnings: Adapting household-level data from the American community survey to a social accounting matrix (2018)
- Blended Feedstocks for Thermochemical Conversion: Biomass Characterization and Bio-Oil Production From Switchgrass-Pine Residues Blends (2018)
- Graphitization Behavior of Loblolly Pine Wood Investigated by in Situ High Temperature X-ray Diffraction (2018)
- Impacts of feedstock properties on the process economics of fast-pyrolysis biorefineries (2018)
- Techno-economic analysis of various biochemical conversion platforms for biosugar production: Trade-offs of co-producing biopower versus pellets for either a greenfield, repurpose, or co-location siting context (2018)
- Characterization and enzymatic hydrolysis of wood from transgenic Pinus taeda engineered with syringyl lignin or reduced lignin content (2017)