The discovery that allowed to overcome theand launched the success of this field of studies was to come from an unexpected field of research: petroleum geosciences. Since the beginning of the 20th century, the use of had been growing exponentially. This was due to the success of the internal combustion engine, developments in transport, and oil’s significant advantages over coal and steam (being lighter, easier to transport, and cheaper, with a better calorific value). Yet, at the beginning of the 20th century, the methods for prospecting for oil were still rudimental and could not keep up with the increasing demand. To overcome this problem, oil companies had already been employing geologists since the end of the 19th century. It was geologists who had successfully mobilised the so-called anticlinal theory to discover new wells: as petroleum and natural gas migrate to the most elevated portions of permeable beds they can usually be found in anticlines. But after the first World War, faced with ever-growing demand, oil companies started exploring regions with more complex stratigraphies that presented obstacles to geologists – like the Gulf of Mexico. Seeking a solution to their geological problems, the extractive industries hired paleontologists hoping that they could help geologists trace oil fields more effectively. However, microfossils had been effectively declared useless for these types of problems, because of their assumed long evolutionary ranges. Instead, early researchers focused on macrofossils to resolve these stratigraphical issues – with poor results.
That is, until a consortium of US oil companies, which had moved to the Gulf coast after the privatisation of Californian oil lands, hired three young women just out of college to work on their collection of fossils: Esther Applin,2 Alva Ellisor, and Hedwig Kniker. These three scientists were the first to identify the importance of microfossils in correlating and interpreting stratigraphies, in 1921.3 Within three years from this breakthrough, 300 micropaleontologists were employed in the industry. By 1931 more than three quarters of all US oil wells used micropaleontologists in their operations. This discovery single-handedly revolutionised the oil industry and geology, bringing about what came to be known as industrial micropaleontology: micropaleontology came to be identified with the new tool of . Capitalizing on this technoscientific development, one of the foremost experts on foraminifera at the time, the American Joseph Cushman, used the profits from his work as a consultant for oil companies to open the Cushman laboratory.4 To this day, Cushman’s institute remains one of the most important sites for the study of foraminiferal micropaleontology. Others followed in his footsteps as new generations of micropaleontologists needed to be trained for the needs of the extractive industries.
The example of US industrial micropaleontology was quickly followed by researchers all over the world. For instance, in the Soviet Union, where the exploitation of the Baku oilfield had already stimulated similar work, a micropaleontology institute was established in 1930 as part of the Petroleum Geological Prospecting Institute (VNIGRI) in Leningrad. Under the leadership of Alexander Vasilievich Fursenko and, later, Nina Nicolaevna Subbotina, the institute also developed important research in industrial micropaleontology. It even extended its activities to Moscow, where Dagmara Maksimilianovna Rauser-Chernousova’s research led to the discovery of more important oil fields in Baku during the second World War.5 In this sense, the field of micropaleontology was largely formed not to answer academic and scientific questions but as an applied instrument to address geological and stratigraphic problems. In particular, it was dedicated to the extractive industries’ search for . This history of a scientific discipline, then, is also intertwined with the private and national concerns that developed alongside global oil interests, industries, and logistics – in particular in the formative early years of the 20th century. As two World Wars ravaged, fragmented, and reassembled planetary orders, industrial micropaleontology’s importance grew as did the consumption of fossil fuels. This increased the economic power of oil companies as well as the amount of greenhouse gases in the atmosphere.
- “‘Bug-Men’ lead hunt for Black Gold”. Popular Mechanics (March 1932): 370-374. https://ucmp.berkeley.edu/images/pdf/bugmen3.pdf (03.01.2022).↩
- For more on Esther Applin, see “Esther Applin 1895-1972”. Museum of the Earth, no date, https://www.museumoftheearth.org/daring-to-dig/bio/applin (03.01.2022).↩
- This history is told in detail in Robbie Rice Gries. “How Female Geologists Were Written out of History: The Micropaleontology Breakthrough”. Geological Society of America. Memoirs 214 (2018): 11-22. https://doi.org/10.1130/2018.1214(02).↩
- For more on Cushman and the laboratory, see “Joseph Cushman: Life and Legacy”. no date, https://naturalhistory.si.edu/research/paleobiology/collections-overview/foraminifera-collections/joseph-cushman (03.01.2022).↩
- For the history of Soviet micropaleontology, see Valeria Mikhalevich et al. “The Russian School of Foraminiferology”. The Journal of Foraminiferal Research 50 (2020): 97-107. https://doi.org/10.2113/gsjfr.50.1.97; Svetlana P. Yakovleva‐O’Neill and Genrieta E. Kolzova. “A History of the First Micropalaeontological Laboratory in the Former Soviet Union”. In Landmarks in Foraminiferal Micropalaeontology: History and Development, A.J. Bowden, F.J. Gregory, and A.S. Henderson (eds.). London: The Micropalaeontological Society, 2013: 59-66. https://doi.org/10.1144/TMS6.6.↩