Published 1977 | Version v1
Journal article

Synthetic carbonaceous fuel and feedstock using nuclear power, air and water

  • 1. Brookhaven National Lab., Upton, N.Y. (USA)

Description

Nuclear power can provide not only the stationary thermal and electrical power backbone in the U.S. but can also be of great assistance in supplying synthetic carbonaceous fuels and feedstocks (SCFF). All forms of carbonaceous materials can serve as sources of raw material for SCFF: however here is considered the ultimate renewable resource of carbon which is CO2 from the atmosphere or the oceans. A number of methods for the recovery of CO2 have been examined. An absorption-stripping system utilizing dilute carbonate solvent appears most economical for atmospheric recovery while distillation appears of interest for sea-water recovery. An alternative isothermal process utilizing chlor-alkali cells is also described. Electrolytic hydrogen is thermocatalytically combined with the CO2 to form methanol which can then be dehydrated to gasoline. Production cost is dominated by the energy for hydrogen and the plant capital investment. Base loaded nuclear power plants supplying peaking load and generating SCFF in an off-peak mode is proposed for reducing costs. Under 1974/5 conditions, incremental power costs would have been a minimum. Under 1985 escalated conditions, incremental costs indicate 6 mills/kWh(e) for power which yields 33.9 c/gallon methanol or 77.1 c/gallon of equivalent gasoline which takes credit for oxygen would break even with $23/bbl of oil. The capital investment for producing the equivalent of one million barrels/day of gasoline in 142 nuclear reactors of 100 MW(e) capacity, operating in an off-peak mode, amounts to slightly more than the investment in new oil exploration and production facilities and considerably less than the projected outflow of capital to foreign OPEC countries. (author)

Additional details

Identifiers

Publishing Information

Journal Title
International Journal of Hydrogen Energy
Journal Volume
2
Journal Issue
2
Series
Int. J. Hydrogen Energy.
Journal Page Range
189-207
ISSN
0360-3199

Optional Information

Notes
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