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In 1944 General George S. Patton's Third Army was racing across southern France. In his haste to be the first U.S. commander to cross into Germany, however, Patton overextended his supply lines. His armored columns ground to a dead stop. Faced the choice of waiting until he could be resupplied or draining the fuel of captured German vehicles, Patton chose the latter. His tanks and armored personnel carriers continued to steamroll toward Germany, powered by the German's own ersatz gasoline – synthetic fuel manufactured from coal."
The point we had earlier wanted to make was, not just that Germany, under extraordinarily adverse economic and industrial conditions, was able to make oil-type liquid fuels from coal, but those fuels were compatible, apparently, without modification, for use in engines made in America.
(And, note, this is documented by our own, US, Dept. of Energy - not some fringe web-site or blog.)
Germany, Mike, back then, in war time, with all it's exigencies. Why not the US, and WV, now, when our homeland isn't under siege?
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'The Indonesian government plans to run a project to produce synthetic fuel using its abundant coal stocks as part of the energy diversification program, an official said Tuesday.
The government will appeal for technological support from Japan to convert coal to liquid fuel, said Nenny Sri Utami, head of the research and development center with the Ministry of Energy and Mineral resources.
Coal-based fuel is targeted to contribute at least 2 percent to national energy supplies by 2025.
"We will produce synthetic coal-based fuel with similar quality with that of oil fuel," she said at a seminar in her office in Jakarta.
Indonesian and Japanese firms will establish a consortium and set up factories in coal-rich provinces, such as South Sumatra, East and South Kalimantan, with initial investment of 1.3 billion U.S. dollars in 2009, she said.'
Point is: Japan had viable Coal-to-Oil technology in WWII, which, like Germany's similar installations, was real enough to inspire serious, targeted Allied military action. And, they still have that technology, no doubt now advanced and refined, and are again reducing it to practice, in Indonesia.
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HAROLD H. SCHOBERT, Chairman, Fuel Sciences Program, Department of Materials Science and Engineering, The Pennsylvania State University, University Park,
if you haven't already contacted our home-state experts at WVU.
We refer you especially to Chapter 6:
"Clean Fuels and Specialty Products from Coal"
An excerpt:
"This chapter discusses the status of technologies for coal conversion to clean fuels and the role of the DOE in developing and promoting lower-cost, higher-efficiency processes to meet future needs. This discussion is divided into three major sections: gasification of coal, products from the gas obtained from coal gasification, and products from direct liquefaction and pyrolysis of coal.1 Opportunities for economic production of a range of coal-based products using coproduct systems, also known as coal refineries, is then addressed. The chapter concludes with the committee's major findings relating to clean fuels and specialty products from coal."
This looks like a valuable study and report, Mike - if we're all really interested in coal, and how to use it to make our liquid fuels and some of our chemicals and plastics. It contains many references for follow-up and fact-checking. We'll probably be sending you many burdensome emails based on our own findings within it. You should publish the web address so that every one of your readers with a computer could check it out.
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"Improving Process Performances in Coal Gasification for Power and Synfuel Production
Abstract
This paper is aimed at developing process alternatives of conventional coal gasification. A number of possibilities are presented, simulated, and discussed in order to improve the process performances, to avoid the use of pure oxygen, and to reduce the overall CO2 emissions. The different process configurations considered include both power production, by means of an integrated gasification combined cycle (IGCC) plant, and synfuel production, by means of Fischer−Tropsch (FT) synthesis. The basic idea is to thermally couple a gasifier, fed with coal and steam, and a combustor where coal is burnt with air, thus overcoming the need of expensive pure oxygen as a feedstock. As a result, no or little nitrogen is present in the syngas produced by the gasifier; the required heat is transferred by using an inert solid as the carrier, which is circulated between the two modules. First, a thermodynamic study of the dual-bed gasification is carried out. Then a dual-bed gasification process is simulated by Aspen Plus, and the efficiency and overall CO22the mass yield of liquid synthetic fuel is increased by 39.4%, the CO2 emissions per unit of liquid fuel are decreased by 31.9% and energy efficiency increases by 71.1%." emissions of the process are calculated and compared with a conventional gasification with oxygen. Eventually, the scheme with two reactors (gasifier-combustor) is coupled with an IGCC process. The simulation of this plant is compared with that of a conventional IGCC, where the gasifier is fed by high purity oxygen. According to the newly proposed configuration, the global plant efficiency increases by 27.9% and the CO emissions decrease by 21.8%, with respect to the performances of a conventional IGCC process. As a second possibility, the same gasifier−combustor scheme is coupled with a coal-to-liquid (CTL) process to convert the syngas into synthetic fuels by a FT reactor. It is shown that, if compared with a conventional CTL plant,
Now, we've referred you previously to the work being performed by Maria Sudiro and her colleagues at the University of Padua, and one or two of their publications. We don't think this is entry is a repeat, but we submit it only to emphasize the point that some pretty serious work is being done in the development and refinement of coal-to-liquid fuel technology - even in places where coal isn't the bedrock of the economy, as it is in West Virginia.
CTL is quite real, Mike, and represents an option for the United States, for West Virginia, to stem the siphoning of our wealth to the oil-producing nations, and to, through coal-to-liquid technology which can ultimately be applied to biological feedstocks, pave the way to truly renewable sources of fuel and energy.
