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Fischer–Tropsch process

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South Africa, Sasol operated 16 advanced reactors of this type with a capacity of approximately 330,000 tons per annum each. The circulating catalyst process can be replaced by fluid-bed technology. Early experiments with cobalt catalyst particles suspended in oil have been performed by Fischer. The bubble column reactor with a powdered iron slurry catalyst and a CO-rich syngas was particularly developed to pilot plant scale by Kölbel at the Rheinpreuben Company in 1953. Since 1990, low-temperature FT slurry processes are under investigation for the use of iron and cobalt catalysts, particularly for the production of a hydrocarbon wax, or to be hydrocracked and isomerized to produce diesel fuel, by Exxon and Sasol. Slurry-phase (bubble column) low-temperature FT synthesis is efficient. This technology is also under development by the Statoil Company (Norway) for use on a vessel to convert associated gas at offshore oil fields into a hydrocarbon liquid.
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Gazprom LLC. In 2014 INFRA commissioned and operated on a continuous basis a new, larger scale full cycle Pilot Plant. It represents the second generation of INFRA's testing facility and is differentiated by a high degree of automation and extensive data gathering system. In 2015, INFRA built its own catalyst factory in Troitsk (Moscow, Russia). The catalyst factory has a capacity of over 15 tons per year, and produces the unique proprietary Fischer–Tropsch catalysts developed by the company's R&D division. In 2016, INFRA designed and built a modular, transportable GTL (gas-to-liquid) M100 plant for processing natural and associated gas into synthetic crude oil in Wharton (Texas, USA). The M100 plant is operating as a technology demonstration unit, R&D platform for catalyst refinement, and economic model to scale the Infra GTL process into larger and more efficient plants.
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1946–50 and named the 'Hydrocol' process. A large scale Fischer–Tropsch Hydrocol plant (350,000 tons per annum) operated during 1951–57 in Brownsville, Texas. Due to technical problems, and impractical economics due to increasing petroleum availability, this development was discontinued. Fluid-bed FT synthesis has been reinvestigated by Sasol. One reactor with a capacity of 500,000 tons per annum is in operation. The process has been used for C
1557: 114: 981:. Promoters are additives that enhance the behavior of the catalyst. For F-T catalysts, typical promoters including potassium and copper, which are usually added as salts. The choice of promoters depends on the primary metal, iron vs cobalt. Iron catalysts need alkali promotion to attain high activity and stability (e.g. 0.5 wt% 950:
analysis. Its high price preclude industrial applications. Cobalt catalysts are more active for FT synthesis when the feedstock is natural gas. Natural gas has a high hydrogen to carbon ratio, so the water-gas shift is not needed for cobalt catalysts. Cobalt-based catalysts are more sensitive than their iron counterparts.
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Starting as a biomass technology licensor In Summer of 2012 SGC Energia (SGCE) successfully commissioned a pilot multi tubular Fischer–Tropsch process unit and associated product upgrading units at the Pasadena, Tx Technology Center. The technology center focused on the development and operations of
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for the Fischer–Tropsch process: iron, cobalt, nickel, and ruthenium. Since FT process typically transforms inexpensive precursors into complex mixtures that require further refining, FT catalysts are based on inexpensive metals, especially iron and cobalt. Nickel generates too much methane, so it is
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This type of reactor contains several tubes with small diameters. These tubes contain catalysts and are surrounded by cooling water which removes the heat of the reaction. A fixed-bed reactor is suitable for operation at low temperatures and has an upper-temperature limit of 257 °C (530 K).
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These are used for high-temperature FT synthesis (nearly 340 °C) to produce low-molecular-weight unsaturated hydrocarbons on alkalized fused iron catalysts. The fluid-bed technology (as adapted from the catalytic cracking of heavy petroleum distillates) was introduced by Hydrocarbon Research in
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and Syntroleum's FT fuel. The seven-hour flight test was considered a success. The goal of the flight test program is to qualify the fuel blend for fleet use on the service's B-52s, and then flight test and qualification on other aircraft. The test program concluded in 2007. This program is part of
1458:. Syntroleum is working to commercialize its licensed Fischer–Tropsch technology via coal-to-liquid plants in the United States, China, and Germany, as well as gas-to-liquid plants internationally. Using natural gas as a feedstock, the ultra-clean, low sulfur fuel has been tested extensively by the 813:
alkene production. A high-temperature process with a circulating iron catalyst ('circulating fluid bed', 'riser reactor', 'entrained catalyst process') was introduced by the Kellogg Company and a respective plant built at Sasol in 1956. It was improved by Sasol for successful operation. At Secunda,
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This type of reactor contains two banks of heat exchangers which remove heat; the remainder of which is removed by the products and recycled in the system. The formation of heavy waxes should be avoided, since they condense on the catalyst and form agglomerations. This leads to fluidization. Hence,
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Generally, the Fischer–Tropsch process is operated in the temperature range of 150–300 °C (302–572 °F). Higher temperatures lead to faster reactions and higher conversion rates but also tend to favor methane production. For this reason, the temperature is usually maintained at the low to
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or with the feedstock to be treated, i.e., the catalysts are generated in situ. Owing to the multistep nature of the FT process, analysis of the catalytically active species is challenging. Furthermore, as is known for iron catalysts, a number of phases may coexist and may participate in diverse
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for conversion of natural gas into synthetic oil. The plant modeled the full cycle of the GTL chemical process including the intake of pipeline gas, sulfur removal, steam methane reforming, syngas conditioning, and Fischer–Tropsch synthesis. In 2013 the first pilot plant was acquired by VNIIGAZ
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is the most active of the Fischer–Tropsch catalysts in the sense that It works at the lowest reaction temperatures and produces higher molecular weight hydrocarbons. Ruthenium catalysts consist of the metal, without any promoters, thus providing relatively simple system suitable for mechanistic
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Construction is underway for Velocys' commercial reference plant incorporating its microchannel Fischer–Tropsch technology; ENVIA Energy's Oklahoma City GTL project being built adjacent to Waste Management's East Oak landfill site. The project is being financed by a joint venture between Waste
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increases the formation of long-chained hydrocarbons. The very long-chained hydrocarbons are waxes, which are solid at room temperature. Therefore, for production of liquid transportation fuels it may be necessary to crack some of the FT products. In order to avoid this, some researchers have
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Heat removal is done by internal cooling coils. The synthesis gas is bubbled through the waxy products and finely-divided catalyst which is suspended in the liquid medium. This also provides agitation of the contents of the reactor. The catalyst particle size reduces diffusional heat and mass
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A demonstration-scale Fischer–Tropsch plant was built and operated by Rentech, Inc., in partnership with ClearFuels, a company specializing in biomass gasification. Located in Commerce City, Colorado, the facility produces about 10 barrels per day (1.6 m/d) of fuels from natural gas.
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for structural promotion and maybe some manganese can be applied for selectivity control (e.g. high olefinicity). The choice of promoters depends on the primary metal, i.e., iron vs cobalt. While group 1 alkali metals (e.g., potassium), help iron catalysts, they poison cobalt catalysts.
1275:, a country with large coal reserves, but little oil. With a capacity of 165000 Bpd at its Secunda plant. The first commercial plant opened in 1952. Sasol uses coal and natural gas as feedstocks and produces a variety of synthetic petroleum products, including most of the country's 731:, both of which are desirable. Typical pressures range from one to several tens of atmospheres. Even higher pressures would be favorable, but the benefits may not justify the additional costs of high-pressure equipment, and higher pressures can lead to catalyst deactivation via 1290:, another South African company, operates a refinery with a 36,000 barrels a day plant that completed semi-commercial demonstration in 2011, paving the way to begin commercial preparation. The technology can be used to convert natural gas, biomass or coal into synthetic fuels. 231:
products is a multi-step reaction with several intermediate compounds. The growth of the hydrocarbon chain may be visualized as involving a repeated sequence in which hydrogen atoms are added to carbon and oxygen, the C–O bond is split and a new C–C bond is formed. For one
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Carbon dioxide is not a typical feedstock for FT catalysis. Hydrogen and carbon dioxide react over a cobalt-based catalyst, producing methane. With iron-based catalysts unsaturated short-chain hydrocarbons are also produced. Upon introduction to the catalyst's support,
82:. This process has received intermittent attention as a source of low-sulfur diesel fuel and to address the supply or cost of petroleum-derived hydrocarbons. Fischer–Tropsch process is discussed as a step of producing carbon-neutral liquid hydrocarbon fuels from CO 1233:
Another plant in Ras Laffan, called Oryx GTL, has been commissioned in 2007 with a capacity of 34,000 barrels per day (5,400 m/d). The plant utilizes the Sasol slurry phase distillate process, which uses a cobalt catalyst. Oryx GTL is a joint venture between
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In the United States and India, some coal-producing states have invested in Fischer–Tropsch plants. In Pennsylvania, Waste Management and Processors, Inc. was funded by the state to implement FT technology licensed from Shell and Sasol to convert so-called
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transfer limitations. A lower temperature in the reactor leads to a more viscous product and a higher temperature (> 297 °C, 570 K) gives an undesirable product spectrum. Also, separation of the product from the catalyst is a problem.
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Assured Fuel Initiative, an effort to develop secure domestic sources for the military energy needs. The Pentagon hopes to reduce its use of crude oil from foreign producers and obtain about half of its aviation fuel from alternative sources by 2016.
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their XTLH solution which optimized processing of low value carbon waste streams into advanced fuels and wax products. This unit also serves as an operations training environment for the 1100 BPD Juniper GTL facility constructed in Westlake, LA.
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margarine made from synthetic oils was found to be nutritious and of agreeable taste, and it was incorporated into diets contributing as much as 700 calories per day. The process required at least 60 kg of coal per kg of synthetic butter.
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Using conventional FT technology the process ranges in carbon efficiency from 25 to 50 percent and a thermal efficiency of about 50% for CTL facilities idealised at 60% with GTL facilities at about 60% efficiency idealised to 80% efficiency.
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Balonek, Christine M.; Lillebø, Andreas H.; Rane, Shreyas; Rytter, Erling; Schmidt, Lanny D.; Holmen, Anders (2010-08-01). "Effect of Alkali Metal Impurities on Co–Re Catalysts for Fischer–Tropsch Synthesis from Biomass-Derived Syngas".
508:(GTL) technology, the hydrocarbons are low molecular weight materials that often would be discarded or flared. Stranded gas provides relatively cheap gas. For GTL to be commercially viable, gas must remain relatively cheaper than oil. 1102:(replacement) fuels. FT production accounted for an estimated 9% of German war production of fuels and 25% of the automobile fuel. Many refinements and adjustments have been made to the process since Fischer and Tropsch's time. 772:
Excess temperature leads to carbon deposition and hence blockage of the reactor. Since large amounts of the products formed are in liquid state, this type of reactor can also be referred to as a trickle flow reactor system.
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Fratalocchi, Laura; Visconti, Carlo Giorgio; Groppi, Gianpiero; Lietti, Luca; Tronconi, Enrico (2018). "Intensifying heat transfer in Fischer-Tropsch tubular reactors through the adoption of conductive packed foams".
1454:, a publicly traded United States company, has produced over 400,000 U.S. gallons (1,500,000 L) of diesel and jet fuel from the Fischer–Tropsch process using natural gas and coal at its demonstration plant near 2817: 2838: 1781:
Davis, S.J., Lewis, N.S., Shaner, M., Aggarwal, S., Arent, D., Azevedo, I.L., Benson, S.M., Bradley, T., Brouwer, J., Chiang, Y.M. and Clack, C.T., 2018. Net-zero emissions energy systems. Science, 360(6396),
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catalysts at 230 °C, converting natural gas to petroleum liquids at a rate of 140,000 barrels per day (22,000 m/d), with additional production of 120,000 barrels (19,000 m) of oil equivalent in
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is the chain growth probability or the probability that a molecule will continue reacting to form a longer chain. In general, α is largely determined by the catalyst and the specific process conditions.
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Khodakov, Andrei Y.; Chu, Wei; Fongarland, Pascal (2007-05-01). "Advances in the Development of Novel Cobalt Fischer−Tropsch Catalysts for Synthesis of Long-Chain Hydrocarbons and Clean Fuels".
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Addition of isotopically labelled alcohol to the feed stream results in incorporation of alcohols into product. This observation establishes the facility of C–O bond scission. Using C-labelled
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plants (CTL). Low-temperature Fischer–Tropsch (LTFT) uses an iron- or cobalt-based catalyst. This process is best known for being used in the first integrated GTL-plant operated and built by
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functions as a reverse water-gas shift catalyst, further increasing the yield of the reaction. The short-chain hydrocarbons were upgraded to liquid fuels over solid acid catalysts, such as
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Illustrative of real world catalyst selection, high-temperature Fischer–Tropsch (HTFT), which operates at 330–350 °C, uses an iron-based catalyst. This process was used extensively by
904: < 10). This way they can drive the reaction so as to minimize methane formation without producing many long-chained hydrocarbons. Such efforts have had only limited success. 2953: 2792: 359:
over cobalt catalysts results in incorporation of these olefins into the growing chain. Chain growth reaction thus appears to involve both 'olefin insertion' as well as 'CO-insertion'.
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Efficient removal of heat from the reactor is the basic need of FT reactors since these reactions are characterized by high exothermicity. Four types of reactors are discussed:
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of the metals. Control of these constituents may be relevant to product distributions. Aside from iron and cobalt, nickel and ruthenium are active for converting the CO/H
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proposed using zeolites or other catalyst substrates with fixed sized pores that can restrict the formation of hydrocarbons longer than some characteristic size (usually
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Zamorano, Marti (2006-12-22). "B-52 synthetic fuel testing: Center commander pilots first Air Force B-52 flight using solely synthetic fuel blend in all eight engines".
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announced its plans to produce biodiesel by the Fischer–Tropsch process alongside the manufacturing processes at its European paper and pulp plants, using waste
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that converts biomass to syngas and fuels using the Shell FT process structure. The company went bankrupt in 2011 due to impracticalities in the process.
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Deutschmann, Olaf; Knözinger, Helmut; Kochloefl, Karl; Turek, Thomas (2011). "Heterogeneous Catalysis and Solid Catalysts, 3. Industrial Applications".
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Around the 1930s and 1940s, Arthur Imhausen developed and implemented an industrial process for producing edible fats from these synthetic oils through
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Unruh, Dominik; Pabst, Kyra; Schaub, Georg (2010-04-15). "Fischer−Tropsch Synfuels from Biomass: Maximizing Carbon Efficiency and Hydrocarbon Yield".
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Pearce, Ben K. D.; Pudritz, Ralph E. (2015). "Seeding the Pregenetic Earth: Meteoritic Abundances of Nucleobases and Potential Reaction Pathways".
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Inderwildi, Oliver R.; Jenkins, Stephen J.; King, David A. (2008). "Mechanistic Studies of Hydrocarbon Combustion and Synthesis on Noble Metals".
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close to one, the total amount of methane formed can be minimized compared to the sum of all of the various long-chained products. Increasing
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The Fischer–Tropsch process involves a series of chemical reactions that produce a variety of hydrocarbons, ideally having the formula (C
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middle part of the range. Increasing the pressure leads to higher conversion rates and also favors the formation of long-chained
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are synthesized under variable calcination temperatures (400–800 °C). Addition of Cu for reduction promotion, addition of
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or coal or related solid feedstocks (sources of carbon) must first convert the solid fuel into gases. These gases include CO, H
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are obtained through precipitation from iron nitrate solutions. Such solutions can be used to deposit the metal salt onto the
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catalyst. This reactivity can be important for synthesis gas derived from coal or biomass, which tend to have relatively low H
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Imhausen, Arthur (1943). "Die Fettsäure-Synthese und ihre Bedeutung für die Sicherung der deutschen Fettversorgung".
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is a molecule that illustrates the kind of reduced carbon species speculated to occur in the Fischer–Tropsch process.
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In addition to the active metal (usually Fe or Co), two other components comprise the catalyst: promoters and the
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Leckel, Dieter (2009-05-21). "Diesel Production from Fischer−Tropsch: The Past, the Present, and New Concepts".
1428:(BG) and Fischer–Tropsch (FT) synthesis can in principle be combined to produce renewable transportation fuels ( 3084:
Dorner, Robert; Dennis R. Hardy; Frederick W. Williams; Heather D. Willauer (2010). "Heterogeneous catalytic CO
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Kaneko, Takao; Derbyshire, Frank; Makino, Eiichiro; Gray, David; Tamura, Masaaki (2001). "Coal Liquefaction".
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Examination of the above equation reveals that methane will always be the largest single product so long as
4076: 3686: 2496: 1217:, Qatar, is the second largest FT plant in the world after Sasol's Secunda plant in South Africa. It uses 4032: 4022: 2982: 1267:
The world's largest scale implementation of Fischer–Tropsch technology is a series of plants operated by
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In general the product distribution of hydrocarbons formed during the Fischer–Tropsch process follows an
484:("syngas") is obtained from biomass/coal gasification is a mixture of hydrogen and carbon monoxide. The H 3741: 1522:
A Fischer–Tropsch-type process has also been suggested to have produced a few of the building blocks of
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In the usual implementation, carbon monoxide and hydrogen, the feedstocks for FT, are produced from
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Management, NRG Energy, Ventech and Velocys. The feedstock for this plant will be a combination of
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Hoque, Md Ariful; Guzman, Marcelo I.; Selegue, John P.; Gnanamani, Muthu Kumaran (2022-10-21).
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A variety of synthesis-gas compositions can be used. For cobalt-based catalysts the optimal H
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in Germany in 1936. Being petroleum-poor but coal-rich, Germany used the process during
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Gates, Bruce C. (February 1993). "Extending the Metal Cluster-Metal Surface Analogy".
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Chemical reactions that convert carbon monoxide and hydrogen into liquid hydrocarbons
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Schulz, H. (1999). "Short history and Present Trends of Fischer-Tropsch Synthesis".
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for improvements to the process in the 1930s and 1940s. Aicher's company was named
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Several reactions are required to obtain the gaseous reactants required for FT
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Unconventional ideas about unconventional gas (Society of Petroleum Engineers)
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Höök, Mikael; Fantazzini, Dean; Angelantoni, André; Snowden, Simon (2013).
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Biological Fischer-Tropsch-type chemistry can be carried out by the enzyme
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resulting from paper and pulp manufacturing processes as source material.
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and food-grade wax. The scale is 12,000 barrels per day (1,900 m/d).
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Moulijn, Jacob A.; Makkee, Michiel; van Diepen, Annelies E. (May 2013).
344:. Many related stoichiometric reactions have been simulated on discrete 218: 3873: 3809: 3654: 3619: 2695: 2643:
Carl Mesters (2016). "A Selection of Recent Advances in C1 Chemistry".
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One of the largest implementations of Fischer–Tropsch technology is in
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Max Planck Institute for Coal Research at Mülheim an der Ruhr, Germany.
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to produce liquid hydrocarbons. The original process was developed by
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Catalysts are supported on high-surface-area binders/supports such as
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For example, British Patent No. 573,982, applied 1941, published 1945
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Bibliography of the Fischer-Tropsch Synthesis and Related Processes
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Bibliography of the Fischer-Tropsch Synthesis and Related Processes
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Carbon monoxide for FT catalysis is derived from hydrocarbons. In
3804: 3798: 3747: 3629: 3606: 1835:"Mission Net-Zero: Charting the Path for E-fuels in the Military" 1556: 1502: 1429: 1419: 1410:(leftovers from the mining process) into low-sulfur diesel fuel. 1356: 1348: 1299: 1287: 1255: 1039: 966: 934: 622: 469: 356: 309: 197: 1691: 757: 3850: 3782: 3698: 3644: 2954:"Schweitzer wants to convert Otter Creek coal into liquid fuel" 1950: 1886:
Dry, Mark E. (2002). "The Fischer–Tropsch process: 1950–2000".
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formation requires some naturally occurring FT-like processes.
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is speculated to undergo dissociation, possibly into oxide and
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steps in the reaction. Such phases include various oxides and
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Gas origin theories to be studied (AAPG Explorer Nov. 2002)
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Lee, Chi Chung; Hu, Yilin; Ribbe, Markus W. (2010-08-06).
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Chen, Chi; Garedew, Mahlet; Sheehan, Stafford W. (2022).
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in small scale with two steps, the second one being FT.
453:{\displaystyle {\ce {8 CO + 17 H2 -> C8H18 + 8 H2O}}} 3552:
Implementing the "Hydrogen Economy" with Synfuels (pdf)
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Annual Review of Chemical and Biomolecular Engineering
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for the first time powered solely by a 50–50 blend of
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Catalysis in the refining of Fischer–Tropsch syncrude
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Fischer–Tropsch intermediates and elemental reactions
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ligands. Other potential intermediates are various C
3488: 3477: 3295:Gerlach, Deidra L.; Lehnert, Nicolai (2011-08-22). 1194:, Burgenland, Austria. Operated by SGCE and Velocys 799:
Fluid-bed and circulating catalyst (riser) reactors
515:. First, reactant gases entering a reactor must be 3489:Anderson, H. C.; Wiley, J. L.; Newell, A. (1955). 3478:Anderson, H. C.; Wiley, J. L.; Newell, A. (1954). 2956:. Billings Gazette. August 2, 2005. Archived from 2007:Angewandte Chemie International Edition in English 1791: 1673:Pages displaying short descriptions with no spaces 1127:In Britain, Alfred August Aicher obtained several 1062:The F-T process attracted attention as a means of 875:is the weight fraction of hydrocarbons containing 783:risers are operated over 297 °C (570 K). 765: 710: 610: 452: 2708:: CS1 maint: DOI inactive as of September 2024 ( 1848:Arno de Klerk (2013). "Fischer–Tropsch Process". 1698:Philosophical Transactions of the Royal Society A 711:{\displaystyle {\ce {CH4 + CO2 -> 2CO + 2H2}}} 43:. These reactions occur in the presence of metal 4068: 3439:de Klerk, Arno; Furimsky, Edward (15 Dec 2010). 3438: 3297:"Fischer–Tropsch Chemistry at Room Temperature?" 3140: 3930:Bioconversion of biomass to mixed alcohol fuels 2723:"Construction of World's First Synthesis Plant" 1944: 1850:Kirk-Othmer Encyclopedia of Chemical Technology 1632: – One of the primary theories on peak oil 1446: 611:{\displaystyle {\ce {H2O + CO -> H2 + CO2}}} 3517:Abiogenic gas debate (AAPG Explorer Nov. 2002) 3424:(1st ed.). Weinheim, Germany: Wiley-VCH. 3294: 3190: 3188: 2182:Ullmann's Encyclopedia of Industrial Chemistry 1920:Ullmann's Encyclopedia of Industrial Chemistry 530:Several reactions are employed to adjust the H 281:Transfer of 2 H to the carbon to yield CH 188:is typically 10–20. The formation of methane ( 55:technology for producing liquid hydrocarbons. 3583: 3239: 3176: 3174: 2285: 2283: 2144:Spath, P. L.; Dayton, D. C. (December 2003). 1847: 1832: 1644: – low temperature carbonization process 1368:Commercial-scale facilities were planned for 945:mixture to hydrocarbons. Although expensive, 758:Design of the Fischer–Tropsch process reactor 267:Transfer of 2 H to the oxygen to yield H 74:. The process then converts these gases into 2684:South African Journal of Business Management 2642: 1837:. NATO Energy Security Centre of Excellence. 1517: 118:Methylidyne­tricobalt­nonacarbonyl 3563:Effect of alkali metals on cobalt catalysts 3533:Process of synthesis of liquid hydrocarbons 3512:Fischer–Tropsch fuels from coal and biomass 3185: 2603:. Max-Planck-Gesellschaft. pp. 78–79. 2568: 2566: 2211: 2209: 2143: 463: 3590: 3576: 3351: 3171: 2280: 2030: 2028: 1464:United States Department of Transportation 633:, which converts the methane into CO and H 320:, hydroxycarbene (HCOH), hydroxymethyl (CH 99:Kaiser Wilhelm Institute for Coal Research 3935:Bioenergy with carbon capture and storage 3393: 3320: 3255: 3088:conversion to value-added hydrocarbons". 2420: 2418: 2379: 2361: 2071:Indian Journal of Environment Engineering 1973: 1913: 1911: 1909: 1809: 1717: 1170:such as that synthesized from propylene. 1120:scientists in a Fischer–Tropsch plant in 1078:in 1926. They filed a number of patents, 972: 891:is less than 0.5; however, by increasing 776: 693: 683: 476:, and alkanes. This conversion is called 432: 383: 373: 288:The conversion of CO to alkanes involves 3419: 3180: 3068: 2735:, February 1952, p. 264, bottom of page. 2678:Meleloe K.E.; Walwyn D.R. (2016-09-01). 2657:10.1146/annurev-chembioeng-080615-034616 2621: 2585: 2563: 2554: 2548: 2519: 2513: 2206: 2061: 1413: 1249: 1182: 1053: 112: 3301:Angewandte Chemie International Edition 3014:Angewandte Chemie International Edition 2938:. State of Pennsylvania. Archived from 2062:Sasidhar, Nallapaneni (November 2023). 2025: 1491: 1418:Choren Industries has built a plant in 1387: 818: 468:Fischer–Tropsch plants associated with 4069: 3225:: CS1 maint: archived copy as title ( 2559:. Dover Publications Inc. p. 256. 2424: 2415: 2034: 1906: 1852:. Weinheim: Wiley-VCH. pp. 1–20. 1833:Trakimavicius, Lukas (December 2023). 1611: – Production of syngas from coal 3571: 2591: 2004: 1881: 1879: 1877: 1508: 1392:In 2010, INFRA built a compact Pilot 1076:Kaiser-Wilhelm-Institut for Chemistry 721: 138:). The more useful reactions produce 108: 4003:Cellulosic ethanol commercialization 3062: 2745:"technologies & processes" Sasol 2627: 1198: 1178: 248:O, several reactions are necessary: 2993:from the original on August 9, 2020 2630:The Development of Modern Chemistry 2463:"German Synthetic Fuels Scientists" 1885: 1685: 542:at the expense of carbon monoxide: 204:and other oxygenated hydrocarbons. 89:The process was first developed by 13: 3536:– Great Britain patent GB309002 – 3413: 3114: 2866:. NewsRoom Finland. Archived from 2636: 2573:"Synthetic Soap and Edible Fats". 2495:. January 14, 1941. Archived from 2268:from the original on 16 April 2015 1874: 1460:United States Department of Energy 825:Anderson–Schulz–Flory distribution 787: 499: 14: 4138: 3500: 3354:"Vanadium Nitrogenase Reduces CO" 2766:. Businessday.co.za. 2011-05-10. 2262:"Gas to Liquids (GTL) Technology" 1294:Shell middle distillate synthesis 1166:fraction which were reacted with 534::CO ratio. Most important is the 236:– group produced by CO + 2 H 215:(ΔH) of −165 kJ/mol CO combined. 4051: 4050: 2632:. Harper & Row. p. 683. 1583: 1569: 1555: 1342: 1109:, in a program initiated by the 629:, another important reaction is 488::CO ratio is adjusted using the 3345: 3288: 3134: 3123:from the original on 2014-09-11 3108: 3077: 3048: 3005: 2975: 2964: 2946: 2928: 2917:from the original on 2018-08-21 2908:Vol. 14, No. 4 – 2017 Pgs 14-17 2893: 2874: 2856: 2845:from the original on 2022-01-03 2831: 2820:from the original on 2022-01-03 2806: 2795:from the original on 2015-09-09 2781: 2770:from the original on 2012-04-03 2756: 2738: 2716: 2671: 2610:from the original on 2020-11-01 2481: 2455: 2396: 2329: 2254: 2173: 2137: 2112: 2055: 1998: 1858:10.1002/0471238961.fiscdekl.a01 1734:from the original on 2019-03-28 766:Multi tubular fixed-bed reactor 1841: 1826: 1785: 1775: 1745: 1666:Synthetic Liquid Fuels Program 1534:. Similarly, the hypothetical 1190:gasification with FT-pilot in 677: 575: 397: 1: 3597: 2049:10.1016/S0926-860X(99)00160-X 1900:10.1016/S0920-5861(01)00453-9 1811:10.1021/acsenergylett.2c00214 1679: 1435:In partnership with Sunfire, 1107:United States Bureau of Mines 827:, which can be expressed as: 538:, which provides a source of 2037:Applied Catalysis A: General 1954:Chemical Engineering Journal 1447:U.S. Air Force certification 1351:paper and pulp manufacturer 907: 252:Associative adsorption of CO 7: 4102:Synthetic fuel technologies 4033:Issues relating to biofuels 4023:Energy return on investment 2555:Whitmore, Frank C. (1951). 2123:. Wiley. pp. 193–200. 2121:Chemical Process Technology 1548: 527:required for FT reactions. 27:that converts a mixture of 10: 4143: 3558:Carbon-to-liquids research 3445:Royal Society of Chemistry 3274:10.1088/0004-637X/807/1/85 2881:http://www.rentechinc.com/ 2592:Maier, Elke (April 2016). 2083:10.54105/ijee.B1845.113223 1362: 1330:and pipeline natural gas. 1320: 1282: 1260: 1202: 1111:Synthetic Liquid Fuels Act 1049: 912:Four metals are active as 754::CO ratios (< 1). 4046: 4008:Energy content of biofuel 3990: 3922: 3838: 3729: 3605: 3243:The Astrophysical Journal 2307:10.1007/s10562-010-0366-4 1966:10.1016/j.cej.2018.05.108 1518:Fischer–Tropsch in nature 255:Splitting of the C–O bond 223:Converting a mixture of H 207:The reaction is a highly 76:synthetic lubrication oil 4092:Organometallic chemistry 3982:Thermal depolymerization 3955:Industrial biotechnology 3507:Fischer–Tropsch archives 3422:Fischer–Tropsch refining 3071:Aerotech News and Review 2972:Choren official web site 2190:10.1002/14356007.o05_o03 1928:10.1002/14356007.a07_197 1400: 1245: 744:water-gas shift reaction 536:water-gas shift reaction 490:water-gas shift reaction 464:Feedstocks: gasification 23:(FT) is a collection of 4122:Organic redox reactions 3950:Fischer–Tropsch process 3940:Biomass heating systems 3420:de Klerk, Arno (2011). 3378:10.1126/science.1191455 2628:Ihde, Aaron J. (1964). 2406:, issued 1930-02-11 1922:. Weinheim: Wiley-VCH. 1657:Steam methane reforming 1577:Renewable energy portal 1545:at ambient conditions. 1333: 989:). Potassium-doped α-Fe 922:heterogeneous catalysts 621:For FT plants that use 259:Dissociative adsorption 21:Fischer–Tropsch process 3544:Clean diesel from coal 3313:10.1002/anie.201102979 3026:10.1002/anie.200800685 2698:(inactive 2024-09-12). 2019:10.1002/anie.199302281 1719:10.1098/rsta.2012.0319 1472:Edwards Air Force Base 1258: 1195: 1059: 973:Promoters and supports 777:Entrained flow reactor 712: 612: 454: 121: 70:in a process known as 3453:10.1039/9781849732017 2985:MIT Technology Review 2841:. AICHE. April 2013. 2594:"Coal-in Liquid Form" 1485:Department of Defense 1414:Research developments 1378:Port St. Joe, Florida 1253: 1186: 1085:U.S. patent 1,746,464 1057: 713: 613: 455: 116: 4097:Petroleum production 2901:"GEO ExPro magazine" 2502:on December 17, 2008 2469:on 24 September 2015 1492:Carbon dioxide reuse 1426:Biomass gasification 1388:INFRA GTL Technology 1382:White River, Ontario 1374:Natchez, Mississippi 819:Product distribution 644: 549: 366: 316:fragments including 105:, Germany, in 1925. 4077:Biofuels technology 4038:Sustainable biofuel 3370:2010Sci...329..642L 3266:2015ApJ...807...85P 3090:Energy Environ. Sci 2601:Max Planck Research 2522:Kolloid-Zeitschrift 2354:2022Mate...15.7378H 1763:on 28 February 2011 1710:2013RSPTA.37220319H 1630:Hubbert peak theory 1536:abiogenic petroleum 1224:natural gas liquids 1122:Louisiana, Missouri 1115:Operation Paperclip 706: 676: 660: 606: 590: 565: 445: 425: 412: 396: 342:migratory insertion 209:exothermic reaction 103:Mülheim an der Ruhr 3144:Energy & Fuels 2987:November 23, 2005" 2886:2010-11-27 at the 2750:2008-11-16 at the 2728:2022-04-29 at the 2696:10.10520/EJC194106 2534:10.1007/BF01502087 2428:Energy & Fuels 2363:10.3390/ma15207378 1798:ACS Energy Letters 1704:(2006): 20120319. 1668: – US-program 1509:Process efficiency 1370:Rialto, California 1306:facility converts 1259: 1254:A SASOL garage in 1209:The LTFT facility 1196: 1133:Synthetic Oils Ltd 1060: 879:carbon atoms, and 722:Process conditions 708: 694: 664: 648: 608: 594: 578: 553: 450: 433: 413: 400: 384: 211:due to a standard 122: 109:Reaction mechanism 25:chemical reactions 4107:German inventions 4064: 4063: 3977:Sabatier reaction 3462:978-1-84973-080-8 3307:(35): 7984–7986. 3157:10.1021/ef9009185 2733:Popular Mechanics 2557:Organic Chemistry 2441:10.1021/ef900064c 2294:Catalysis Letters 2232:10.1021/cr050972v 2130:978-1-4443-2025-1 1757:tonto.eia.doe.gov 1651:Sabatier reaction 1609:Coal gasification 1347:In October 2006, 1302:, Malaysia. This 1199:Ras Laffan, Qatar 1179:Commercialization 1113:, employed seven 1074:, working at the 697: 686: 667: 651: 597: 581: 574: 568: 556: 448: 436: 416: 403: 387: 376: 213:reaction enthalpy 49:coal liquefaction 4134: 4054: 4053: 3898:Pongamia pinnata 3592: 3585: 3578: 3569: 3568: 3496: 3485: 3474: 3435: 3408: 3407: 3397: 3349: 3343: 3342: 3324: 3292: 3286: 3285: 3259: 3237: 3231: 3230: 3224: 3216: 3214: 3213: 3207: 3201:. 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Archived from 1749: 1743: 1742: 1740: 1739: 1721: 1689: 1674: 1671: 1662: 1647: 1620: 1605: 1593: 1591:Chemistry portal 1588: 1587: 1586: 1579: 1574: 1573: 1565: 1560: 1559: 1165: 1164: 1163: 1153: 1152: 1151: 1087: 1029: 1028: 1027: 1019: 1018: 1008: 1007: 1006: 988: 979:catalyst support 926:catalyst support 920:Typically, such 854: 852: 851: 846: 843: 746:activity of the 717: 715: 714: 709: 707: 705: 702: 695: 684: 675: 672: 665: 659: 656: 649: 617: 615: 614: 609: 607: 605: 602: 595: 589: 586: 579: 572: 566: 564: 561: 554: 459: 457: 456: 451: 449: 446: 444: 441: 434: 424: 421: 414: 411: 408: 401: 395: 392: 385: 374: 332:), methylene (CH 296:(cleavage with H 4142: 4141: 4137: 4136: 4135: 4133: 4132: 4131: 4117:1925 in Germany 4112:1925 in science 4067: 4066: 4065: 4060: 4042: 4018:Energy forestry 3986: 3918: 3880:Jatropha curcas 3841: 3834: 3742:Camelina sativa 3732: 3725: 3601: 3596: 3547:by Kevin Bullis 3538:Hermann Plauson 3503: 3463: 3432: 3416: 3414:Further reading 3411: 3350: 3346: 3293: 3289: 3238: 3234: 3218: 3217: 3211: 3209: 3205: 3198: 3196:"Archived copy" 3194: 3193: 3186: 3179: 3172: 3139: 3135: 3126: 3124: 3113: 3109: 3087: 3082: 3078: 3067: 3063: 3054: 3053: 3049: 3010: 3006: 2996: 2994: 2981: 2980: 2976: 2969: 2965: 2952: 2951: 2947: 2934: 2933: 2929: 2920: 2918: 2914: 2903: 2899: 2898: 2894: 2890:(official site) 2888:Wayback Machine 2879: 2875: 2862: 2861: 2857: 2848: 2846: 2837: 2836: 2832: 2823: 2821: 2812: 2811: 2807: 2798: 2796: 2791:. 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Vol. 2. 3486: 3484:. Vol. 1. 3475: 3461: 3436: 3430: 3415: 3412: 3410: 3409: 3344: 3287: 3232: 3184: 3170: 3133: 3107: 3096:(7): 884–890. 3085: 3076: 3061: 3047: 3020:(28): 5253–5. 3004: 2974: 2963: 2960:on 2009-01-01. 2945: 2942:on 2008-12-11. 2927: 2892: 2873: 2870:on 2007-03-17. 2855: 2830: 2816:. 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Cambridge: 3442: 3437: 3433: 3431:9783527326051 3427: 3423: 3418: 3417: 3405: 3401: 3396: 3391: 3387: 3383: 3379: 3375: 3371: 3367: 3364:(5992): 642. 3363: 3359: 3355: 3348: 3340: 3336: 3332: 3328: 3323: 3322:2027.42/87158 3318: 3314: 3310: 3306: 3302: 3298: 3291: 3283: 3279: 3275: 3271: 3267: 3263: 3258: 3253: 3249: 3245: 3244: 3236: 3228: 3222: 3208:on 2017-04-28 3204: 3197: 3191: 3189: 3182: 3181:de Klerk 2011 3177: 3175: 3166: 3162: 3158: 3154: 3150: 3146: 3145: 3137: 3122: 3118: 3111: 3103: 3099: 3095: 3091: 3080: 3072: 3065: 3058:. 2017-11-08. 3057: 3051: 3043: 3039: 3035: 3031: 3027: 3023: 3019: 3015: 3008: 2992: 2988: 2986: 2978: 2971: 2967: 2959: 2955: 2949: 2941: 2937: 2931: 2913: 2909: 2902: 2896: 2889: 2885: 2882: 2877: 2869: 2865: 2859: 2844: 2840: 2834: 2819: 2815: 2809: 2794: 2790: 2784: 2769: 2765: 2759: 2753: 2749: 2746: 2741: 2734: 2731: 2727: 2724: 2719: 2711: 2705: 2697: 2693: 2689: 2685: 2681: 2674: 2666: 2662: 2658: 2654: 2650: 2646: 2639: 2631: 2624: 2606: 2602: 2595: 2588: 2580: 2576: 2569: 2567: 2558: 2551: 2543: 2539: 2535: 2531: 2527: 2523: 2516: 2498: 2491: 2484: 2468: 2464: 2458: 2450: 2446: 2442: 2438: 2434: 2430: 2429: 2421: 2419: 2405: 2399: 2391: 2387: 2382: 2377: 2373: 2369: 2364: 2359: 2355: 2351: 2347: 2343: 2339: 2332: 2324: 2320: 2316: 2312: 2308: 2304: 2301:(1–2): 8–13. 2300: 2296: 2295: 2286: 2284: 2267: 2263: 2257: 2249: 2245: 2241: 2237: 2233: 2229: 2225: 2221: 2220: 2212: 2210: 2201: 2195: 2191: 2187: 2183: 2176: 2162:on 2008-12-17 2158: 2154: 2147: 2140: 2132: 2126: 2122: 2115: 2100: 2096: 2092: 2088: 2084: 2080: 2076: 2072: 2065: 2058: 2050: 2046: 2043:(1–2): 3–12. 2042: 2038: 2031: 2029: 2020: 2016: 2012: 2008: 2001: 1993: 1989: 1985: 1981: 1976: 1975:11311/1072010 1971: 1967: 1963: 1959: 1955: 1947: 1939: 1937:9783527306732 1933: 1929: 1925: 1921: 1914: 1912: 1910: 1901: 1897: 1893: 1889: 1882: 1880: 1878: 1869: 1863: 1859: 1855: 1851: 1844: 1836: 1829: 1821: 1817: 1812: 1807: 1803: 1799: 1795: 1788: 1778: 1762: 1758: 1754: 1748: 1733: 1729: 1725: 1720: 1715: 1711: 1707: 1703: 1699: 1695: 1688: 1684: 1667: 1664: 1658: 1655: 1652: 1649: 1643: 1640: 1637: 1634: 1631: 1628: 1625: 1624:Hydrogenation 1622: 1616: 1615:Fischer assay 1613: 1610: 1607: 1601: 1598: 1597: 1592: 1581: 1578: 1572: 1567: 1564: 1563:Energy portal 1558: 1553: 1546: 1544: 1539: 1537: 1533: 1529: 1525: 1515: 1506: 1504: 1500: 1489: 1486: 1481: 1477: 1473: 1469: 1465: 1461: 1457: 1453: 1444: 1442: 1438: 1433: 1431: 1427: 1423: 1421: 1411: 1409: 1398: 1395: 1385: 1383: 1379: 1375: 1371: 1360: 1358: 1354: 1350: 1343:UPM (Finland) 1340: 1331: 1329: 1318: 1316: 1313: 1309: 1305: 1301: 1291: 1289: 1280: 1278: 1274: 1270: 1264: 1257: 1252: 1243: 1241: 1237: 1231: 1229: 1225: 1220: 1216: 1212: 1206: 1193: 1189: 1188:Fluidized bed 1185: 1176: 1173: 1172:"Coal butter" 1169: 1141: 1136: 1134: 1130: 1125: 1123: 1119: 1116: 1112: 1108: 1103: 1101: 1100: 1095: 1091: 1086: 1081: 1077: 1073: 1069: 1068:Franz Fischer 1065: 1056: 1047: 1045: 1041: 1037: 1032: 980: 970: 968: 964: 960: 956: 951: 948: 940: 936: 927: 923: 918: 915: 905: 903: 898: 894: 890: 885: 882: 878: 873: 869: 862: 858: 850: 841: 837: 830: 829: 828: 826: 803: 802: 792: 791: 781: 780: 770: 769: 763: 755: 749: 745: 736: 734: 730: 699: 690: 687: 680: 669: 661: 653: 640: 639: 638: 632: 631:dry reforming 628: 624: 599: 591: 583: 569: 558: 545: 544: 543: 541: 537: 528: 526: 522: 518: 514: 509: 507: 497: 491: 483: 482:Synthesis gas 479: 471: 438: 429: 426: 418: 405: 389: 380: 377: 370: 362: 361: 360: 358: 354: 349: 347: 343: 339: 327: 319: 311: 307: 303: 295: 291: 290:hydrogenation 280: 273: 266: 260: 257: 254: 251: 250: 249: 230: 216: 214: 210: 205: 203: 200:, as well as 199: 195: 191: 187: 175: 169: 162: 157: 149: 145: 144: 143: 141: 135: 128: 119: 115: 106: 104: 100: 96: 92: 91:Franz Fischer 87: 81: 77: 73: 69: 65: 61: 56: 54: 50: 46: 42: 38: 34: 30: 26: 22: 3949: 3896: 3890: 3886: 3878: 3861: 3857:Big bluestem 3849: 3842:energy crops 3797: 3740: 3550: 3542: 3531: 3491: 3480: 3440: 3421: 3361: 3357: 3347: 3304: 3300: 3290: 3247: 3241: 3235: 3210:. 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The CO 229:aliphatic 45:catalysts 4056:Category 3991:Concepts 3874:Duckweed 3863:Camelina 3840:Non-food 3788:Rapeseed 3778:Palm oil 3721:Wood gas 3694:Methanol 3687:mixtures 3607:Biofuels 3404:20689010 3339:21761528 3282:93561811 3221:cite web 3121:Archived 3042:34524430 3034:18528839 2991:Archived 2912:Archived 2884:Archived 2843:Archived 2818:Archived 2793:Archived 2768:Archived 2748:Archived 2726:Archived 2665:27276549 2605:Archived 2542:93119728 2390:36295443 2323:98234730 2266:Archived 2248:17488058 1732:Archived 1728:24298075 1549:See also 1503:zeolites 1462:and the 1441:E-diesel 1430:biofuels 1205:Oryx GTL 1168:glycerol 1044:zeolites 935:carbides 540:hydrogen 353:ethylene 202:alcohols 33:hydrogen 3805:Soybean 3799:Sorghum 3748:Cassava 3677:Ethanol 3660:Biomass 3630:Bagasse 3615:Alcohol 3395:3141295 3366:Bibcode 3358:Science 3262:Bibcode 2381:9610504 2350:Bibcode 1767:3 April 1706:Bibcode 1530:within 1420:Germany 1363:Rentech 1357:biomass 1349:Finnish 1321:Velocys 1300:Bintulu 1288:PetroSA 1283:PetroSA 1256:Gauteng 1192:Güssing 1129:patents 1050:History 1040:alumina 967:Bintulu 855:= (1 − 853:⁠ 832:⁠ 729:alkanes 625:as the 623:methane 523:") the 470:biomass 357:propene 310:carbide 198:alkenes 176: H 140:alkanes 97:at the 68:biomass 3851:Arundo 3783:Potato 3699:Stover 3645:Biogas 3469:  3459:  3428:  3402:  3392:  3384:  3337:  3329:  3280:  3163:  3040:  3032:  2663:  2540:  2473:15 May 2447:  2410:  2388:  2378:  2370:  2321:  2313:  2272:15 May 2246:  2238:  2196:  2127:  2097:  2089:  1990:  1982:  1934:  1864:  1818:  1726:  1380:; and 1312:sulfur 1228:ethane 1219:cobalt 1099:ersatz 1090:Brabag 1036:silica 866:where 521:poison 326:methyl 306:ligand 184:where 37:syngas 3970:stove 3825:Wheat 3768:Maize 3758:Grape 3711:Straw 3620:Algae 3467:S2CID 3278:S2CID 3252:arXiv 3206:(PDF) 3199:(PDF) 3038:S2CID 2915:(PDF) 2904:(PDF) 2608:(PDF) 2597:(PDF) 2538:S2CID 2500:(PDF) 2493:(PDF) 2319:S2CID 2160:(PDF) 2149:(PDF) 2095:S2CID 2067:(PDF) 1988:S2CID 1816:S2CID 1499:ceria 1401:Other 1394:Plant 1304:Shell 1269:Sasol 1263:Sasol 1246:Sasol 1240:Sasol 1042:, or 963:Shell 955:Sasol 809:and C 324:OH), 244:) + H 240:→ (CH 66:, or 4087:Coal 3965:mill 3914:Wood 3793:Rice 3763:Hemp 3704:corn 3457:ISBN 3426:ISBN 3400:PMID 3382:ISSN 3335:PMID 3327:ISSN 3227:link 3161:ISSN 3030:PMID 2999:2020 2710:link 2661:PMID 2475:2015 2445:ISSN 2386:PMID 2368:ISSN 2311:ISSN 2274:2015 2244:PMID 2236:ISSN 2194:ISBN 2125:ISBN 2106:2023 2087:ISSN 1980:ISSN 1932:ISBN 1862:ISBN 1769:2018 1724:PMID 1526:and 1483:the 1480:JP-8 1468:B-52 1437:Audi 1334:SGCE 1238:and 1226:and 1105:The 1080:e.g. 1070:and 748:iron 733:coke 355:and 93:and 78:and 60:coal 51:and 31:and 19:The 3830:Yam 3773:Oat 3449:doi 3390:PMC 3374:doi 3362:329 3317:hdl 3309:doi 3270:doi 3248:807 3153:doi 3098:doi 3022:doi 2692:doi 2653:doi 2530:doi 2526:103 2437:doi 2376:PMC 2358:doi 2303:doi 2299:138 2228:doi 2224:107 2186:doi 2079:doi 2045:doi 2041:186 2015:doi 1970:hdl 1962:doi 1958:349 1924:doi 1896:doi 1854:doi 1806:doi 1714:doi 1702:372 1528:RNA 1524:DNA 1432:). 1353:UPM 1271:in 1213:at 999:SiO 965:in 336:), 328:(CH 232:–CH 101:in 4073:: 3889:× 3465:. 3455:. 3447:. 3398:. 3388:. 3380:. 3372:. 3360:. 3356:. 3333:. 3325:. 3315:. 3305:50 3303:. 3299:. 3276:. 3268:. 3260:. 3246:. 3223:}} 3219:{{ 3187:^ 3173:^ 3159:. 3149:24 3147:. 3119:. 3092:. 3036:. 3028:. 3018:47 3016:. 2989:. 2910:. 2906:. 2706:}} 2702:{{ 2688:47 2686:. 2682:. 2659:. 2647:. 2599:. 2579:54 2577:. 2565:^ 2536:. 2524:. 2443:. 2433:23 2431:. 2417:^ 2384:. 2374:. 2366:. 2356:. 2346:15 2344:. 2340:. 2317:. 2309:. 2297:. 2282:^ 2264:. 2242:. 2234:. 2222:. 2208:^ 2192:. 2184:. 2151:. 2093:. 2085:. 2073:. 2069:. 2039:. 2027:^ 2011:32 2009:. 1986:. 1978:. 1968:. 1956:. 1930:. 1908:^ 1892:71 1890:. 1876:^ 1860:. 1814:. 1800:. 1796:. 1755:. 1730:. 1722:. 1712:. 1700:. 1696:. 1505:. 1474:, 1376:; 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Index

chemical reactions
carbon monoxide
hydrogen
syngas
hydrocarbons
catalysts
coal liquefaction
gas to liquids
coal
natural gas
biomass
gasification
synthetic lubrication oil
synthetic fuel
Franz Fischer
Hans Tropsch
Kaiser Wilhelm Institute for Coal Research
Mülheim an der Ruhr

Methylidyne­tricobalt­nonacarbonyl
alkanes
diesel fuel
alkenes
alcohols
exothermic reaction
reaction enthalpy
aliphatic
Dissociative adsorption
hydrogenation
hydrogenolysis

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