David Talbot Day

From ETHW

David Talbot Day
Fig. 1 David Talbot Day (1859-1925)
Birthdate
1859/09/10
Birthplace
Rockport, OH, USA
Death date
1925/04/15

Biography

The original version of this article was created by Francesco Gerali, 2020 Elizabeth & Emerson Pugh Scholar in Residence at the IEEE History Center

It is recommended this article be cited as:

F. Gerali (2020). David Talbot Day, Engineering and Technology History Wiki. [Online] Available: https://ethw.org/David_Talbot_Day

Early life and education

Fig. 2 Ira Remsen (1846-1927)
Fig. 3 United States Geological Survey seal
Fig. 4 American Institute of Mining and Metallurgical Engineers early seal
Fig. 5 United States Bureau of the Census seal
Fig. 6 Carl Oswald Viktor Engler (1842-1925)
Fig. 7 Elmer Grant Woodruff (1872-1952)
Fig. 8 Field apparatus for distilling oil shales
Fig. 9 United States Bureau of Mines early seal
Fig. 10 Handbook of the Petroleum Industry frontispiece, 1922
Fig. 11 David Talbot Day in the 1920s
Fig. 12 Map of the oil-shale fields in the Rocky Mountain region

David Talbot Day was born on September 10th, 1859 in Rockport, OH (modern-day, Lakewood), to Willard Gibson and Caroline Cathcart Day. The family moved to Baltimore when he was 13 and attended grammar school there (Fig. 1). In 1877, Day was admitted to the Johns Hopkins University, and graduated in 1881 with a Bachelor of Arts in chemistry and in 1884 received his Ph.D. in chemistry under the mentoring of Professor Ira Remsen[1] (1846-1927) (Fig. 2). The same year Day was hired at the University of Maryland and served for two years as a demonstrator of chemistry. [2]

Career development: petroleum data and information management

1886 was a turning point in his personal and professional life. At the beginning of the year, he married Elizabeth Eliot Keeler, of Mayport, Florida; got hired at the United States Geological Survey[3] in the capacity of full-time associate and moved to Washington D.C. (Fig. 3). Shortly after he succeed his mentor at the USGS, Albert Williams, Jr and got appointed Chief of the USGS Mining Statistic and Technology Division, which few years later merged into the Division of Mineral Resources. In 1887, Day joined the American Institute of Mining, Metallurgical Engineers (AIME), the most relevant engineering professional society, of which he held the presidency in 1893 and 1900 (Fig. 4).

Since 1879, the date of its establishment by Congress decree, the USGS was in charge of exploring mineral resources and editing statistics on the mineral and mining industries. Day put a great commitment and method into the statistical work, soon gaining a brilliant reputation: he mastered the practice of data collection and processing into deliverable and ready to use information on mineral resources reserves and production of the United States. He was often seconded by Edward Wheeler Parker, an expert in coal industry,[4] with which he achieved important and long lasting quality standards for statistical reports.

The exponential increase in production of petroleum and natural gas in the U.S. resulted in an intensive involvement of the USGS into that sector, and David Talbot Day was put in charge for petroleum-related matters. He received further acknowledgement of his skills in 1889 when upon the organization of the Census Bureau[5] for 1890 was nominated special agent in charge of the Division of Mines and Mining (Fig. 5).

Day's contributions to petroleum geology

In the 1890s, Day diversified his research into other aspects of petroleum science. Going beyond chemistry and statistics, he approached the ongoing debate on theories concerning the origin of petroleum. The main organic theory discussed at that time was the one proposed by the German Carl Oswald Viktor Engler, who sustained that under the action of high heat and pressure the oleaginous portion of animal organisms was “cooked” and then deposited by ascending at different levels (Fig. 6).

Day envisioned another mechanism of deposition: he assumed that the filtration mechanism was the most likely reason for the migration of matured kerogen[6] through several strata. The heavier fractions of petroleum were refrained by the same strata (on a different extent depending by the rocks) that, at the same time, favored the descent and the accumulation of the lighter fractions of petroleum closer to the surface. In light of that, this filtration hypothesis could successfully explain why petroleum reservoirs closer to the surface are lighter than the ones entrapped in lower layers. On February 5, 1897, Day presented his findings for the first time at the meeting of the American Philosophical Society in Washington, D.C. Later in 1900, he presented his ideas at the First International Petroleum Congress, held in Paris between August 16 and 28.

Day continued his research with Joseph Elliott Gilpin (1866-1924), professor at the John Hopkins University, and presented two further summaries: a lecture at the 1903 meeting of the Geological Society of Washington[7] and a journal article published in 1911.

Pioneering studies on oil shales

After 28 years of distinguished service, Day resigned from his position at the USGS in 1907 to pursue a consulting chemist career in oil shale production and refining. However, he continued to collaborate with the Survey as an affiliate expert on petroleum matters, and in 1907-1909 he represented the USGS at the International Commission for Petroleum Tests.

Day was convinced that the United States had the potential to establish a cost effective production of petroleum and derivates from the oil shales - a sector that was struggling to emerge because the predominance of petroleum and coal - and decided to dedicate his know-how in this new scientific challenge. Together with Elmer Grant Woodruff and sponsored by the USGS Day made successful surveys and field tests in the oil shale beds of northwestern Colorado and northeastern Utah (Fig. 7 & Fig. 8).

In 1914, Day’s work was closer to oil shale technology development than to its geology. In light of that, he decided to conclude his affiliation with the USGS, and opted to undertake a position of consulting chemist the U.S. Bureau of Mines (Fig. 9). Eventually, in 1920, he resigned from the Bureau to devote his research exclusively to experimental work on the distillation of oil shale. Day built his own laboratory in Santa Maria, California, a place with easy access to petroleum fields and deposits of oil shale. In this facility he erected a distilling plant for oil shale to run experiments which confirmed his belief that shales could be utilized in a commercial way for the production of gasoline and other products. In the last years of his life, Day studied also cracking processes for converting the heavier petroleum into gasoline. That triggered his interest toward the Mexican petroleum fields, which produced mostly heavy crude processed in large part in the U.S. refineries of Texas.

In 1922 he published the Handbook of the Petroleum Industry in two volumes. This is a comprehensive technical manual and compendium of his experience in the industry (Fig. 10), which became a standard reference for scholars and practitioners in petroleum science and technology.

Death and legacy

David Talbot Day passed away suddenly from a heart attack while visiting a friend in Washington, D. C., on April 15th, 1925, aged 66. He was survived by his wife, daughter, and son David Eliot Day, petroleum engineer in Los Angeles (Fig. 11).

Historiography mainly celebrates Day for his benchmark contributions to petroleum statistics and geological reference works, but that represents just a portion of his career. He was a primarily a chemist who specialized in minerals that matured into a deep overview and understanding of the national energy resources due to his managerial appointment at the USGS. Day’s positive assessment on the value and relevance of oil shale contributed to a source of future supplies for the country that the U.S. Geological Survey implemented a massive campaign of mapping and study on the largest oil shale deposits in the United States (Fig. 12). Lastly, Day had also an important role in the Government decision to create the petroleum and oil-shale reserves for the exclusive use and owned by the U.S. Navy.

Selected publications of David Talbot Day

Day, David Talbot and United States Geological Survey. 1892. Mineral Resources of the United States: Calendar Years 1889 and 1890. Department of the Interior, United States Geological Survey. Washington: Government Printing Office.

Day, David Talbot. 1897. “A Suggestion as to the Origin of Pennsylvania Petroleum”. Proceedings of the American Philosophical Society of Philadelphia, vol. XXXVI, no. 154: 112-115.

Day, David Talbot. 1902. “La Variation des Caractères des Huiles Brutes de Pennsylvanie et de l'Ohio”. Congres International du Pétrole, Notes, Mémoires et Documents. Journal du Pétrole 1: 53-56.

Day, David Talbot. “Experiments on the Diffusion of Crude Petroleum Through Fuller's Earth”. Lecture at the Geological Society of Washington, April 22, 1903. See W. C. Mendenhall, Science 17, 1007-1008 (1903).

Day, David Talbot and United States Geological Survey. 1905. Mineral Products of the United States: Calendar Years 1895 to 1904. Department of the Interior, United States Geological Survey. Washington: Government Printing Office.

Day, David Talbot and United States Geological Survey. 1909. Known Productive Oil and Gas Fields of U.S. in 1908. Department of the Interior, United States Geological Survey. Washington: Government Printing Office.

Day, David Talbot, Gilpin, Joseph Elliott. 1909. “The Changes in Crude Petroleum Effected by Diffusion Through Clay”. Industrial & Engineering Chemistry Research 1, 449-455 (1909).

Day, David Talbot. 1911. “The Conditions of Accumulation of Petroleum in the Earth”. Transaction of the American Institution of Mining and Metallurgical Engineers 44: 219-224.

Day, David Talbot. 1917. “Shale oil to make up deficit in crude-petroleum production”. Oildom 7, No. 11: 556-558.

Day, David Talbot. 1917. “The gasoline situation and oil shales”. Petroleum Age 4, No. 10: 26-29.

Day, David Talbot. 1918. “Colorado oil shales to save world”. Mining American 77, No. 1876, p. 7,

Day, David Talbot. 1918. “Oil-shale possibilities, with some history”. Salt Lake Mining Review 19: 23-25.

Day, David Talbot. 1920. “The oil famine and the remedy”. The American Review of Reviews 62, September: 291-296.

Day, David Talbot. 1920. “On the progress and possibilities of the shale-oil industry”. Oil and Gas News 8, No. 3: 14.

Day, David Talbot, et all. 1922. A Handbook of the Petroleum Industry. Vol I & II. New York: Wiley.

See also

References

Alderson, V. C. 1920. “The oil-shale industry and its possibilities”. Oil, Paint, and Drug Reporter vol. 97: 16; vol. 98: 15.

Anonimous. 1891. “Prominent Men in the Mining Industry: David Talbot Day, Ph.D.”. The Engineering and Mining Journal 51, May 23: 607.

Beekly, A. L. 1953. “Memorial of Elmer Grant Woodruff”. Bulletin of the American Association of Petroleum Geologists 37, no 1: 192-195.

Campbell, M.R. 1925. “David Talbot Day”. Transactions of the American Institute of Mining, Metallurgical and Petroleum Engineers

Darton, N.H., 1934. “Memorial of David Talbot Day.” Proceedings of the Geological Society of America, June 1934: 185-192.

Day, David Talbot. 1911. “The Conditions of Accumulation of Petroleum in the Earth.” Transaction of the American Institution of Mining and Metallurgical Engineers 44: 219-224.

Day, David Talbot, et all. 1922. A Handbook of the Petroleum Industry. Vol I & II. New York: Wiley.

Ettre, L. S. 1995. “Early Petroleum Chemists and the beginning of chromatography.” Chromatographia 40, no. 3-4: 207-216.

Hardwicke, Robert Etter.1937. Petroleum and natural gas bibliography. Austin: The University of Texas,

Owen, Edgar Wesley. 1975. Trek of the Oil Finders: A History of Exploration for Petroleum. AAPG Memoir 6. Tulsa: American Association of Petroleum Geologists.

Winchester, Dean E. .1923. Oil Shale of the Rocky Mountain Region. Department of the Interior, United States Geological Survey. Washington: Government Printing Office.

Further Reading