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Penn State has a long history of coal science and technology dating back to the 1930s and even earlier.* We are one of the leading coal research centers internationally. Throughout our history we have been active in practically all aspects of coal research. Traditional research areas include coal combustion, coal processing, direct coal-to-liquids (including coal-derived jet fuel), coal gasification, coal structure, coal petrology, coal coking, environmental controls, coal beneficiation, coal water slurry, and coal ash-chemistry with all ranks of coal. In addition, our emerging areas of coal research include enhanced coalbed methane and CO2 sequestration in coal, oxy-combustion, advanced coal gasification, co-firing coal-biomass, ionic liquids treatment, microwave applications to coal, application of X-ray computed tomography technique, and others. We are one of the two National Research Centers in Coal.
* Non-mining coal-theses date back to the early 1900s
The Institute has laboratory- and pilot-scale combustion units as well as a gasifying unit with the flexibility to evaluate impacts of fuel beneficiation, fuel utilization, various pollution control approaches, materials use, ash chemistry, and the suitability and challenges of firing or gasifying biomass and other renewable feedstocks either individually or concurrently with coal.
Anthropogenic CO2 emissions along with other greenhouse gases are contributing to the rapid change in global climate. Many of the largest point sources of CO2 emissions are in the electric utility sector along with cement and other energy intensive industries. Accordingly, several research programs are being conducted at the EMS Energy Institute in the areas of carbon capture and storage:
We characterize coal, its char, ash, liquid, and gaseous products. We perform both traditional and advanced coal characterization, which includes coal handling, grindability, cleaning, trace element partitioning, oxidation, petrology, proximate, ultimate, fluidity, as well as X-ray computed tomography, laser desorption ionization mass-spectroscopy, and NMR.
We have advanced the ability to generate large-scale, accurate, molecular representations of coals and chars rapidly with relative ease. We use these molecular representations, constrained by experimental data, to explore chemical and physical structural differences, interaction with gases and solvents, reactivity, solvent extraction, char formation, primary thermolysis and direct liquefaction.
We study the influence of gaseous atmosphere, temperature, and pressure on mineral matter transformations and ash formation.