
doi: 10.2172/273794 , 10.2172/814269
This program was geared to support the Fossil Energy Material Sciences Program with respect to several areas of interest in efficient production and utilization of energy. Carbon molecular sieves have great potential for economically purifying gases; i.e. removal of carbon dioxide from natural gas without having to resort to cryogenic techniques. Microporous carbons can be tailored to serve as adsorbents for natural gas in on-board storage in automotive applications, avoiding high pressures and heavy storage tanks. This program is a laboratory study to evaluate production methodologies and activation processes to produce porous carbons for specific applications. The Carbon Materials Technology Group of Oak Ridge National Laboratory (ORNL) is engaged in developmental programs to produce activated carbon fibers (ACF) for applications in fixed beds and/or flowing reactors engineering applications.
Activated Carbon, Fossil Fuels, And Peat, Nitrogen, Sorptive Properties, Policy And Economy, Molecular Sieves, Pore Structure, Natural Gas, Lignite, Carbon Fibers, 36 Materials Science, Temperature Dependence, Surface Area, Carbon Dioxide, Carbon, Surfaces, 01 Coal, Fibers, Coal, Coconuts, Adsorbents, 29 Energy Planning, Sorption, Quality Assurance, 03 Natural Gas, Methane
Activated Carbon, Fossil Fuels, And Peat, Nitrogen, Sorptive Properties, Policy And Economy, Molecular Sieves, Pore Structure, Natural Gas, Lignite, Carbon Fibers, 36 Materials Science, Temperature Dependence, Surface Area, Carbon Dioxide, Carbon, Surfaces, 01 Coal, Fibers, Coal, Coconuts, Adsorbents, 29 Energy Planning, Sorption, Quality Assurance, 03 Natural Gas, Methane
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