Abstract
Germany has virtually no petroleum deposits. Prior to the twentieth century this was not a serious problem because Germany possessed abundant coal reserves. Coal provided for commercial and home heating; it also fulfilled the needs of industry and the military, particularly the navy. In the opening decade of the twentieth century, Germany’s fuel requirements began to change. Two reasons were especially important. First, Germany became increasingly dependent on gasoline and diesel oil engines. The appearance of automobiles, trucks, and then airplanes made a plentiful supply of gasoline essential. Moreover, ocean-going ships increasingly used diesel oil rather than coal as their energy source. Second, Germany’s continuing industrialization and urbanization led to the replacement of coal with smokeless liquid fuels that not only had a higher energy content but were cleaner burning and more convenient to handle.
He is the author of Electron and valence: Development of the theory 1900–1925 (1982) and of several articles on the history of synthetic fuels, the most recent “The U.S. Bureau of Mines Synthetic Fuel Programme 1920s–1950s: German connections and recent American Advances,” Annals of science, 54 (1997), 29–68. Stranges is completing a book on the international development of the synthetic fuel industry.
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References
A third process, the distillation or carbonization of coal at either a high temperature (HTC) of 700–1000° C or a low temperature (LTC) of 500–700° C produces petroleum. The process is not a synthesis but a decomposition and gives small yields of only gallons per metric ton of coal rather than barrels. It is a derived process and was never a major contributor to Germany’s liquid fuel requirements. Its simplicity, distilling the petroleum from coal, not its yield, has resulted in its use.
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Henry H. Storch, Norma Golumbic, and Robert B. Anderson, The Fischer-Tropsch and related syntheses (New York, 1951), 115.
Franz Fischer and Hans Tropsch, German patent 484,337 (22 Jul 1925);
Fischer and Tropsch publications (ref. 8); Fischer, “The synthesis of petroleum,” International Conference on Bituminous Coal, Proceedings (Pittsburgh, 1926), 234–246
Storch, Golumbic, and Anderson, Fischer-Tropsch (Pittsburgh, 1926), 116–117.
Storch, Golumbic, and Anderson, Fischer-Tropsch (Pittsburgh, 1926), 135;
Franz Fischer, Helmet Pichler, and Rolf Reder, “Überblick über die Möglichkeiten der Beshaffung geeigneter Köhlenoxyd-Wasserstoff-Gemische für die Benzinsynthese auf Grund des heutigen Standes von Wissenschaft und Technik,” Brennstoff Chemie, 13 (1932), 421–428
Franz Fischer, Otto Roelen, and Walter Feisst, “Über die nunmehr erreichten technischen Stand der Benzinsynthese,” Brennstoff Chemie, 13 (1932), 461–468
Franz Fischer and Herbert Koch, Über den Chemismus der Benzinsynthese und über die motorischen und senstigen Eigenschaften der dabei auftretenden Produkte (Gasol, Benzin, Dieselöl, Hartparaffin), Brennstoff Chemie, 13 (1932), 428–434
Herbert Koch and Otto Horn, “Vergleichende Untersuchung über das motorische Verhalten eines synthetischen Benzins nach Franz Fischer (Kogasin I) und eines Erdöl-Benzins,” Brennstoff Chemie, 13, (1932), 164–167.
Storch, Golumbic, and Anderson, Fischer-Tropsch (Pittsburgh, 1926), 337
Storch, Golumbic, and Anderson, “Synthetic petrol by the Fischer process,” Gas world, 105 (1936), 362–363
H.H. Storch, “Synthesis of hydrocarbons from water gas,” H.H. Lowry, ed., Chemistry of coal utilization (3 vols., New York, 1945 and 1963), 2, 1797–1845, on 1800. The motor fuel’s estimated average cost was 22 pfennig per kg. According to Arno Fieldner and American engineers the wartime cost of either the F-T or the hydrogenation process was 20–30c per U.S. gallon.
See Arno C. Fieldner, “Frontiers of fuel technology,” Chemical and engineering news, 26:23 (7 Jun 1948), 1700–1701. For the conversion of metric tons to barrels use 1 metric ton = 7.2 barrels.
Ministry of Fuel and Power, Ministry of Fuel and Power on the petroleum and synthetic oil industry of Germany (London, 1947), 82–90
Ministry of Fuel and Power, “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 421
Franz Fischer, “The conversion of coal into liquid fuels,” Chemical age, 35 (24 Oct 1936), 353–355
Franz Fischer, “The Fischer process,” Chemical age, 35 (31 Oct 1936), 367.
Storch, Golumbic, and Anderson, “Fischer-Tropsch” (Pittsburgh, 1926), 336–338; Ministry of Fuel and Power (ref. 12)
G. Wilke, “Die Erzeugung and Reinigung von Synthesegas für die Benzinsynthese,” Chemische Fabrik, 11 (1938), 563–568
G. Wilke, “Substitute motor fuels in Europe,” Petroleum press service, 5 (1938), 301–304
Fieldner, “Frontiers” (ref. 11). Average exchange rate from 1934 to 1941 was RM 1 = 40c, Federal Reserve System, Banking and monetary statistics, 1914–1941 (Washington D.C., 1947), 671.
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 82–90.
Ibid., 91 (Table 55); the German Health Office officially approved the synthetic fat as fit for human consumption, but the Nazi government suppressed the findings of certain (unnamed) university scientists which threw considerable doubt on the fat’s safety. Synthetic fat always contains esters of branched-chain fatty acids some of which are toxic (see p. 94). C.C. Hall, “Oils and waxes from coal,” Chemical age, 55 (9 Nov 1946), 569–570.
Trials of war criminals before the Nürnberg military tribunals (Washington D.C., 1953), see vol. 7, the LG. Farben Case (case 6), testimony of defendant (Carl) Krauch. The Fuel Agreement is Nürnberg industrialists document NI-881, reel 9, 14 Dec 1933. See also Wolfgang Birkenfeld, “Leuna, 1933,” Tradition, 8 (1963), 107–108
Wolfgang Birkenfeld, Der synthetische Treibstoff 1933–1945 (Göttingen, 1964), 23–34
Peter Hayes, Industry and ideology (Cambridge, 1987), 115–120.
The United States strategic bombing survey, The German oil industry ministerial report team 78, Oil division, 1st edn., 5 Sep 1945, 2nd edn., Jan 1947, 19–20.
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 89
T.E. Warren, Inspection of hydrogénation and Fischer-Tropsch plants in western Germany during September 1945, FIAT, Final report no. 80, item no. 30 (London, 1945), 1–28, on 16–18; Germany, liquid fuels, V-syn-thetic oil plants-Fischer-Tropsch synthesis, (typed) Report 75687, Reference numbers 5.01–5.09; “Coal hydrogenation-Germany, hydrocarbons synthesis,” Petroleum press service, 6 (1939), 529–532.
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 89
Warren, Inspection of hydrogénation and Fischer-Tropsch plants in western Germany during September 1945, FIAT, Final report no. 80, item no. 30 (London, 1945), 23–24; Germany, liquid fuels (ref. 18).
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 89
Warren, Inspection of hydrogénation and Fischer-Tropsch plants in western Germany during September 1945, FIAT, Final report no. 80, item no. 30 (London, 1945)14–15; Germany, liquid fuels (ibid.).
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 85.
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 90; “Coal-hydrogenation-Germany” (ref. 18); “Coal hydrogenation-Germany, hydrocarbons synthesis,” Petroleum press ser-vice, 7 (1940), 31–32; Germany, liquid fuels (ref. 18).
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 87 (Table L); Hall (ref. 15).
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 90; Germany, liquid fuels (ref. 18).
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 89; Warren (ref. 18), 21–22; Germany, liquid fuels (ref.18)
Ministry of Fuel and Power , “Motorkraftstoff von Kohl,” Teer und Bitumen, 35 (1937), 231–232.
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 89–90 (Table 54); Warren (ref. 18), 16; Germany, liquid fuels (ref. 18); “Coal hydrogenation, Germany” (ref. 18); “Motor kraftstoff” (ref. 25).
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 90; Warren (ref. 18); “Motorkraftstoff” (ref. 25).
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 90–91; Germany, liquid fuels (ref. 18).
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 96–100.
Ministry of Fuel and Power , “Germany’s home production of motor fuels,” Gas world, 104 (9 May 1936), 92–95, 101–102.
Wilhelm Roggersdorf, In the realm of chemistry (Düsseldorf, 1965), 8–15; High-pressure hydrogenation at Ludwigshafen-Heidelberg, FIAT, Final report no. 1317. Joint Intelligence Objectives Agency (9 vols., Dayton, Ohio, 1951), 1, 28.
L.F. Haber, The chemical industry: 1900–1930 (Oxford, 1971), 203.
Maria Höring and Ludwig Raichle, “Zur Technologie der Kohle und Ölhy-drierung, Matthias Pier zum Gedachtnis,” Chemie Ingenieur Technik, 38:3 (Mar 1966), 205–208.
BASF (Alwin Mittasch, Matthias Pier, and Karl Winkler), German patent 415,686 (application 24 Jul 1923, awarded 27 Jul 1925).
High-pressure (ref. 31), 1, 32.
Heinrich Brückmann, “Coal liquefaction and its importance in world economy,” The mining journal 160 (28 Jan 1928), 69–70
Heinrich Brückmann, “Coal liquefaction and its importance in world economy,” The mining journal, 160 (4 Feb 1928), 94
Heinrich Brückmann, “Coal liquefaction and its importance in world economy,” The mining journal, 160 (11 Feb 1928), 116.
Stranges (ref. 3), 663–665. Average exchange rate for 1919: RM 1 = 3d:; for 1920: RM 1 = 1.75c. No figure is available for 1918, Federal Reserve System (ref. 13).
Thomas Parke Hughes, “Technological momentum in history: Hydrogenation in Germany 1898–1923,” Past and present, 44 (1969), 106–132
E.E. Donath and Maria Höring, “Early coal hydrogenation,” Fuel processing technology, 1 (1977), 3–20.
Tony Edwards, “The new republic,” History broadsheet, no. 4, Heinemann Educational Books, Ltd. 1972. Germany abandoned its old currency in Nov 1923. One new gold mark now equaled one trillion old marks, and $1.00 equaled 4.28 gold marks.
Stranges (ref. 3), 663–665; High-pressure (ref. 31), 41. BASF concluded only a patent agreement not an exchange of information with Bergius. On 9 Dec 1925 BASF merged with seven other German chemical companies to form the LG. Farben cartel.
Donath and Höring (ref. 38), 5.
German patents 608,466 and 633,185 (both 14 Feb 1925).
High-pressure (ref. 31), 1, 34–38; Donath and Höring (ref. 38); French patent 612,504, English patents 249,156, and 274,404 (all 14 Mar 1925). The patents were for the two phase process.
High-pressure (ref. 31), 1, 39–41.
Ibid., 53–54; H.H. Storch, “Hydrogenation of coal and tar,” H.H. Lowry, ed., Chemistry of coal utilization (3 vols., New York, 1945 and 1963), 2, 1750–1796, on 1768.
High-pressure (ref. 31), 1, 42–47.
Stranges (ref. 3); High-pressure (ref. 31), 1, 55, 129; Storch (ref. 45), 1793; Ronald Holyroyd, LG. Farbenindustrie AG Works, Ludwigshafen and Leuna. XIII. Hydrogen resistant steels, etc., CIOS, Ministry of Fuel and Power, 30:103, 1945; U.S. Bureau of Mines, Information circular 7375 (1946), 66–67
J.H. Howell and R.M. Crawford, The production of synthetic fuels by the Hydrogenation of solid and liquid carbonaceous materials. XII. Materials of construction, U.S. Naval Technical Mission; Ministry of Fuel and Power, 217–245 (1945), 99–117; R. Taylor, “High-pressure technique,” Journal of the Society of Chemistry and Industry, 56 (1937), 41–50T.
High-pressure (ref. 31), 1, 54–59.
Stranges (ref. 3); Anthony N. Stranges, “From Birmingham to Billingham: High-pressure coal Hydrogenation in Great Britain,” Technology and culture, 26 (1985), 726-757.
George S. Gibb and Evelyn H. Knowlton, The resurgence years, 1911–1927: History of Standard Oil Company (New York, 1956), 2, 545. Four volumes written by different authors and published at different times (1955, 1958, 1971, and 1988) give the history of Standard Oil.
George S. Gibb and Evelyn H. Knowlton, The resurgence years, 1911–1927: History of Standard Oil Company (New York, 1956), 546
Henrietta M. Larson, Evelyn H. Knowlton and Charles S. Popple, New horizons, 1927–1950: History of Standard Oil Company (New York, 1971) 3, 154.
High-pressure (ref. 31) 1, 60–61; Federal Oil Conservation Board, Public hearing, 27 May 1926 (Washington D.C., 1926); Federal Oil Conservation Board, Complete record of public hearings, 10 and 11 Feb 1926 (Washington D.C., 1926); Anthony N. Stranges, “The U.S. Bureau of Mines’ synthetic fuel programme, 1920–1950s: German connections and American advances,” Annals of science, 54 (1997), 29–68, on 32–34.
Frank A. Howard, Buna rubber: The birth of an industry (New York, 1947), 16.
Robert P. Russell and Robert J. Haslam, “Hydrogenation of petroleum,” Industrial and engineering chemistry, 22 (1930), 1030–1037.
High-pressure (ref. 31), 2, 61.
Larson, Knowlton, and Popple, New horizons (ref. 51), 155; R.T. Haslam and J.T. Ward, “Progress in fuel utilization in 1927,” Mechanical engineering, 50 (1928), 26.
. Larson, Knowlton, and Popple (ref. 51), 155–156; John L. Enos, Petroleum progress and profits: A history of process innovation (Cambridge, 1962), 190.
Russell and Haslam (ref. 54).
High-pressure (ref. 31), 1, 62.
Larson, Knowlton, and Popple (ref. 51), 157; Enos (ref. 57), 190–191.
Stranges (ref. 3), 663. The U.S. dollar and RM exchange rate dropped rapidly during this period from RM 1 = 17c in 1917, to RM 1 = 1.2c in 1921, to RM 1 = 0.002c in 1923, before leveling off at RM 1 = 24c from 1925 to 1932, Federal Reserve System (ref. 37).
Stranges (ref. 49).
Stranges (ref. 3); High-pressure (ref. 31), 1, 54.
Stranges (ref. 49); High-pressure (ref. 31), 1, 62–63; Larson, Knowlton, and Popple (ref. 51), 157.
Richard O’Connor, The oil barons (Boston, 1971), 304.
Harold F. Williamson, The American petroleum industry (2 vols., Evanston, 1959) 2, 545.
R.T. Haslam, R.R Russell, and W.C. Asbury, “Comparison of cracking and Hydrogenation and methods of producing gasoline,” World Petroleum Congress Proceedings (2 vols., London, 1933), 2, 309–316.
High-pressure (ref. 31), 1, 63; Larson, Knowlton, and Popple (ref. 51), 158.
High-pressure (ref. 31), 1, 64.
Larson, Knowlton, and Popple (ref. 51), 158–159.
See the papers published in World Petroleum Congress, Proceedings (ref. 67).
John M. Blair, The control of oil (New York, 1978), 33, 42–43.
Glyn Roberts, The most powerful man in the world, the life of Sir Henri Deterding [1938] (Westpoint, CT, 1976), 290.
High-pressure (ref. 31), 1; Ministry of Fuel and Power (ref. 12), 51–59.
High-pressure (ref. 31).
“Coal hydrogenation-Germany” (ref. 18); High-pressure (ref. 31), 1, 80–82; Ministry of Fuel and Power (ref. 12), 53; Germany (including Czechoslovakia). Liquid fuels, synthetic oil plants. Hydrogenation (typed) Report 75687, reference numbers 4.01–4.06. Average exchange rate from 1934 to 1941 was RM 1 = 40c, Federal Reserve System (ref. 13).
. High-pressure (ref. 31), 1, 82–84; Ministry of Fuel and Power (ref. 12), 65; Warren (ref. 18) 10–11; Germany (ref. 76); “Coal hydrogenation-Germany” (ref. 18).
High-pressure (ref. 31), 2, 84–85; Warren (ref. 18), 12–13, Germany (ref. 76); J.H. Howell and R.M. Crawford, The production of synthetic fuels by the Hydrogenation of solid and liquid carbonaceous materials. IX: the Pott-Broche process, U.S. Naval Technical Mission, Ministry of Fuel and Power, 217–245 (1945), 65–70.
High-pressure (ref. 31), 1, 85–86; Ministry of Fuel and Power (ref. 12), 53; Warren (ref. 18), 12–13.
High-pressure (ref. 31), 2, 86–88; Ministry of Fuel and Power (ref. 12), 66–68; Warren (ref. 18), 8–9; Germany (ref. 76); Gelsenberg Benzin AG consisted of five partners: Vereingte Stahlwerke AG, Dusseldorf; Gelsenkirchener Bergwerks AG; August Thyssen-Hütte AG, Duisburg-Hamborn; Bochumer Verein; and Dortmund-Hörder Hüttenverein, Dortmund, “Motorkraftstoff” (ref. 25).
High-pressure (ref. 31), 1, 89–90; Ministry of Fuel and Power (ref. 12).
High-pressure (ref, 31), 1, 88; Ministry of Fuel and Power (ref. 12), 54; Germany (ref. 76).
High-pressure (ref. 31), 1, 92–93; Ministry of Fuel and Power (ref. 12) 64–66, 68; Germany (ref. 76); “Liquid fuel-Germany,” Petroleum times, 44 (1940), 61.
High-pressure (ref. 31), 1, 93–94; Ministry of Fuel and Power (ref. 12), 65; Warren (ref. 18), 6–7; Germany (ref. 76); Union Rheinische was a combination of Rheinische AG für Braunkohlen Bergbau und Brikettfabrikation in Cologne, and Braunkohlen und Brikettwerke Roddergrube AG in Brühl; “Motorkasftstoff” (ref. 25).
High-pressure (ref. 31), 1, 93–94; Ministry of Fuel and Power (ref. 12), 57; Ronald Holroyd, ed., LG. Farbenindustrie AG works, Leuna, CIOS, Ministry of Fuel and Power 32:107 (1945), 134–137; and U.S. Bureau of Mines, Information circular, 7370 (1946). 86. High-pressure (ref. 31), 1, 94–96; Ministry of Fuel and Power (ref. 12), 68–69; gives Blechhammer’s a capacity of 425,000 metric tons per year and a maximum production of 65,000 metric tons per year (p. 48). Germany (ref. 76); Holroyd (ref. 85), 128–133; U.S. Bureau of Mines (ref. 85).
Ministry of Fuel and Power (ref. 12), 1–2, 88; Strategic bombing survey (ref. 17).
Strategic bombing survey (ref. 17).
Ministry of Fuel and Power (ref. 12) 1–2, 50, 61, 67, 68, 93. The prewar exchange rate is from Statistical abstract of the United States 1939 (Washington, 1939), 208. RM 1 = 25c.
Edward Homze, Foreign labor in Nazi Germany (Princeton, 1967), 171.
Ministry of Fuel and Power (ref. 12), 61 (Table 35).
Homze, Foreign labor (ref. 90), 171; Joseph Borkin, The crime and punishment of LG. Farben (New York, 1978), 117. RM 10 = DM 1 = 40c U.S., currency conversion law of 1948.
Ministry of Fuel and Power (ref. 12), 48 (Table 26).
Jurgen Kuczynski, Germany: economic and labor conditions under facism (New York, 1968), 213.
Homze (ref. 90), 238–239.
Ibid.
Benjamin B. Ferencz, Less than slaves (Cambridge, 1979), 52.
Ibid., xvi-xvii.
“Principles to govern the treatment of Germany in the initial control period,” no. 848, The conference of Berlin (The Potsdam Conference), 1945, Foreign relations of the United States, diplomatic papers (17 vols., Washington, D.C., 1949–1964–1968), 2 (1960), 750–753, on 752.
“Multilateral: German industries,” United States treaties and other international agreements, pt. 1,1951 (35 vols., Washington D.C., 1950–84), 2 (1952), 962–972, on 963.
“Multilateral: Incorporation of Germany into European community of nations,” United States treaties and other international agreements, pt. II, 1952 (35 vols., Washington D.C., 1958–84), 3 (1954), 2714–2722, on 2716.
Birkenfeld (ref. 16), 213–215; E.E. Donath, “Hydrogenation of coal and tar,” H.H. Lowry, ed., Chemistry of coal utilization (3 vols., New York, 1945 and 1963), suppl. vol., 1041–1080, on 1042–1044; “German synthetic petrol and the Moscow conference,” Petroleum times, 51 (1947), 430, 446; “Present position and future role of Möst (Brüx) synthetic oil plant,” Petroleum times, 50 (1946), 852; Strategic bombing survey (ref. 17). Most of the information on the Fischer-Tropsch and coal Hydrogenation plants has come from the Allied investigative teams that went to Germany during World War IPs closing months. These teams, such as United States Technical Oil Mission (TOM) and the British Intelligence Objectives Subcommittee (BIOS), examined the thousands of technical reports Allied troops captured at the synthetic fuel plants, interviewed many of the German synthetic fuel scientists, and sent their information to the Combined Intelligence Office Subcommittee (CIOS) in London for translating and abstracting. CIOS prepared 141 microfilm reels, and after moving its operation to the United States produced another 164 reels. CIOS, BIOS, TOM, and Field Intelligence Agency Technical (FIAT) also printed and released more then 1,400 reports on the German synthetic fuel plants, many of which are on TOM microfilm reels In addition to the 1,400 investigative reports several exhaustive summaries of the reports are available.
The most important of these are the Ministry of Fuel and Power, Report on the petroleum and synthetic oil industry of Germany (London, 1947) and the Joint Intelligence Objectives Agency, High-pressure Hydrogenation at Ludwigshafen-Heidelberg, FIAT, Final Report 1317 (9 vols., Dayton, Ohio: Central Air Document Office, March 1951). The Ministry’s Report deals with the Fischer-Tropsch synthesis and the coal Hydrogenation process whereas the Joint Intelligence’s High-pressure discusses only coal Hydrogenation.
A third comprehensive source is Henry H. Storch, Norma Golumbic, and Robert B. Anderson, The Fischer-Tropsch and related syntheses (New York, 1951). It also relies heavily on the captured German World War II synthetic fuel documents. These are the best and most comprehensive sources, and I have relied on them extensively.
Other important sources that I have used in this study are Peter Hayes, Industry and ideology, LG. Farben in the Nazi era (Cambridge, 1987)
Raymond G. Stokes, Divide and prosper: the heirs of I.G. Farben under allied authority, 1945–1951 (Berkeley, 1988)
John Gimbel, Science, technology, and reparations: exploitation and plunder in postwar Germany (Stanford, 1992)
102f. Jeffrey A. Johnson, The Kaiser’s chemists, science and modernization in imperial Germany (Chapel Hill, 1990). During the early 1970s after the Arab oil embargo and crisis of 1973–74 Richard Wainerdi and Kurt Irgolic established the German Document Retrieval Project at Texas A&M University. They set as its objective the collecting, translating, and organizing of the thousands of German World War II documents and reports that the Allied intelligence teams had brought to the United States and now were scattered around the country in various government repositories, archives, and even with members of the TOM. The German Document Retrieval Project, of which I was a member, accomplished its objective, and as a result Texas A&M’s archives contain what is very likely the most comprehensive collection of information on Germany’s World War II synthetic fuel industry. I have used this collection in this and other papers I have written on the history of synthetic fuel. This paper’s citations on the plant descriptions are from the Ministry’s and the Joint Intelligence’s summaries, with other sources included when required for greater detail or clarification.
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Stranges, A. (2000). Germany’s synthetic fuel industry, 1927–1945. In: Lesch, J.E. (eds) The German Chemical Industry in the Twentieth Century. Chemists and Chemistry, vol 18. Springer, Dordrecht. https://doi.org/10.1007/978-94-015-9377-9_7
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Publisher Name: Springer, Dordrecht
Print ISBN: 978-90-481-5529-3
Online ISBN: 978-94-015-9377-9
eBook Packages: Springer Book Archive